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6X Series Sensors User Guide

6X Series Sensors

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Quickstart Guide

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Incident Light Sensor and GPS

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Reflectance Panel

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Integration Information

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Introduction

6X Series Sensors Introduction

The Sentera 6X Series Sensors deliver science-grade, high-resolution visual image products through a streamlined, easy-to-use, data processing workflow.

Designed to meet the most demanding research and data science requirements, the 6X features six simultaneously triggered channels, each with a dedicated, high quality optical path. Each optical path allows for a fast capture rate (five frames per second) and produces highly accurate radiometric data.

Leveraging technology used in Sentera’s advanced sensors, the 6X is equipped with a custom processor, tailored to efficiently handle immense data throughput, and perform onboard computer vision and machine learning computations.

The 6X sensor is the camera unit, but the 6X Series Sensor kits may include a variety of components, depending on the purchase options. The 6X purchase may include a light sensor, GPS sensor, cabling, gimbal, and/or reflectance panel.

Installation

6X Series Sensors Installation

Introduction

Installation instructions for the gimballed 6X sensor on supported drone platforms.

For custom OEM installations please see the integration section of this manual.


DJI Aircraft


Freefly Aircraft


Inspired Flight


Variants

6X Series Sensors Variants

There are two variants of the sensor: 6X and 6X Thermal. The 6X contains five monochrome channels and an RGB channel. The 6X Thermal contains four monochrome channels, an RGB channel, and a thermal channel.



What's The Difference?

For the 6X Thermal & Thermal Pro, the blue band monochrome imager is removed and replaced with the FLIR Boson imager. See more on the specifications page.


OEM Sensor

6X Series Sensors What's In The Box OEM Sensor

Base Kit

  • 6X Sensor.

  • Hard Case w/ Custom Foam.

  • 4ft Custom Ethernet Cable.

  • 3ft Custom Power Cable.

  • Incident Light Sensor & GPS Module

  • Calibrated Reflectance Panel

  • USB-C to USB-C Cable


SKUs

Model
SKU

DJI Inspire 1 & 2

6X Series Sensors Installation - DJI Inspire 1 & 2

6X & Light Sensor

Instructions

  1. Install light sensor/GPS into mounting tray.

  2. Connect the 90 degree adapter to the straight end of the USB-C cable.

  3. Connect USB-C cable into light sensor.

  4. Secure USB-C Cable.

  5. Install 6X gimbal into Skyport.

  6. Connect USB-C cable to gimbal.

  7. Power On the aircraft.

The light sensor is connected to the USB-C port on the upper portion of the gimbal not the USB-C port on the sensor itself.

If a light sensor is not bring used, simply omit the related steps.


Light Sensor/GPS Mounting

If a Light Sensor/GPS was purchased with the 6X, the hardware to mount to the drone needs to be installed. See the instructions linked below.

Anatomy

6X Series Sensors Anatomy

Introduction

Learn more about the anatomy of the 6X sensor or gimbal.


Sensor Anatomy


Gimbal Anatomy


Gimbal

6X Series Sensors Gimbal Anatomy

Information

The Sentera gimbal stabilizes the sensor in a dual-axis pitch and roll. Gimbals allow a sensor to continuously point nadir (straight down), while flying faster, covering more ground, with more accuracy, allowing the ability to gather more information, while maintaining high quality tagged images.

Isometric

Front

Profile

DJI M300/350
DJI M200/M210
DJI Inspire 1 & 2
Freefly Astro
Inspired Flight IF800
Inspired Flight IF1200A

6X Multispectral OEM

21930-08

6X Thermal OEM

21930-09

6X Thermal Pro OEM

21930-16

3ft USB-C to USB-A cable.
DJI Inspire 1 & 2
Sensor
Gimbal

5 Band Multispectral + Hi-res RGB

4 Band Multispectral + Hi-res RGB + Thermal LWIR

4 Band Multispectral + Hi-res RGB + Hi-res Thermal LWIR

Specifications

Freefly Astro

6X Series Sensors Installation - Freefly Astro

6X & Light Sensor

Compatibility Instructions

Current Astro firmware and 6X firmware requires two parameters to be set for seamless operation. Please use the page linked below for instructions on how to set the parameters.

This requirement will be removed in an upcoming firmware release.


Instructions

  1. Install light sensor/GPS into mounting tray.

  2. Install 6X gimbal into smart dovetail.

  3. Secure smart dovetail latch.

  4. Connect USB-C cable into light sensor.

  5. Secure USB-C Cable.

  6. Connect USB-C cable to gimbal.

  7. Power On the aircraft.

The light sensor is connected to the USB-C port on the upper portion of the gimbal not the USB-C port on the sensor itself.

If a light sensor is not bring used, simply omit the related steps.


Light Sensor/GPS Mounting

If a Light Sensor/GPS was purchased with the 6X, the hardware to mount to the drone needs to be installed. See the instructions linked below.

What's In The Box

6X Series Sensors What's In The Box

Introduction

Learn more about what is included with the 6X sensor. The contents of the 6X case will vary based on the 6X model that was purchased, as well as if optional accessories are also purchased.


Sensor with Gimbal


OEM Sensor


Optional Accessories


Replacement Cables


Sensor

6X Series Sensors Sensor Anatomy

Isometric

Top

Left

Right

Supported Platforms

6X Series Sensors Supported Platforms

DJI


Freefly


Inspired Flight


Other

6X can be readily adapted to work on nearly any drone that can support the following connectors.

Interface Varients

6X Series Sensors Interface Variants

DJI Skyport


Smart Dovetail


Gremsy Hyper Quick HDMI


Supported Data Products

6X Series Sensors Supported Data Products

General Data Products

Orthomosaic

RGB Mosaic

Multispectral Mosaic

RGB VARI Mosaic

DSM/DEM

DSM/DEM results may vary when using the RGB imagery to generate the data product due to the ERS effect.

Thermal Mosaic (6X Thermal and Thermal Pro Only)


Sentera Product Catalog

These are products that can be ordered via Sentera FieldAgent. The links below will define the required flight settings and the data product deliverables.

Plot

Field Scale

Mosaics

Sensor w/ Gimbal
OEM Sensor
Accessories
Replacement Cables
Plot Stand Count and Uniformity
Plot Multispectral and/or Thermal Crop Health with Uniformity
Plot Masked Multispectral and/or Thermal Crop Health with Uniformity
Plot Canopy Cover and Uniformity
Plot Anomaly Detection
Field Scale Stand Count
Field Scale Stand Count (Offline)
Field Scale Stand Count with Uniformity
RGB Mosaic
Precision Aligned RGB Mosaic
Multispectral and/or Thermal Crop Health Mosaic
Precision Aligned Multispectral and/or Thermal Crop Health Mosaic
NDRE
NDVI
NDRE
CIG
CIRE
GLI
GNDVI
NDWI
TCARI OSAVI
Freefly Compatibility Settings - Astro
Freefly Astro

M300 & 350

M200 & M210 V2

Inspire 1 & 2

Astro

IF1200A

IF800

Gremsey HDMI Hyper Quick Mount

DJI Z30 Connector

Smart Dovetail

Gimbal Connectors

Sensor w/ Gimbal

6X Series Sensors What's In The Box Sensor With Gimbal

Base Kit

  • 6X Sensor & Gimbal.

  • Hard Case w/ Custom Foam.

  • External Power Supply.

  • 10ft USB-C to USB-A Cable.

  • Right Angle USB-C Adapter.

  • Calibrated Reflectance Panel

  • Incident Light Sensor & GPS Module

  • USB-C to USB-C Cable

  • Light Sensor Mounting Hardware


Compatibility

Aircraft
Variant
SKU

M300/350

Multispectral

21930-00

M300/350

Thermal

21930-01

M300/350

Thermal Pro

21930-12

Freefly Astro

Multispectral

21930-02

Freefly Astro

Thermal

21930-02

Freefly Astro

Thermal Pro

21930-13

IF800

Multispectral

21930-04

IF800

Thermal

21930-05

IF800

Thermal Pro

21930-14

IF1200

Multispectral

21930-06

IF1200

Thermal

21930-07

IF1200

Thermal Pro

21930-15


For a full ist of accessories content see the follwoing page:

DJI M200/M210

6X Series Sensors Installation - DJI M200/210

6X & Light Sensor

Instructions

  1. Install light sensor/GPS into mounting tray.

  2. Connect USB-C cable into light sensor.

  3. Secure USB-C Cable.

  4. Install 6X gimbal into Skyport.

  5. Connect USB-C cable to gimbal.

  6. Power On the aircraft.

The light sensor is connected to the USB-C port on the upper portion of the gimbal not the USB-C port on the sensor itself.

If a light sensor is not bring used, simply omit the related steps.


Dual Gimbal Setup

For dual gimbal mount setup the 6X should be placed in the correct port for the slected mode of operation (sensor configuration).

Integrated Mode

Use gimbal slot 1. This will power the sensor/gimbal/light sensor, and allow the sensor to communicate with the DJI autopilot and ingest trigger commands, GPS, altitude, and attitude information.

Stand Alone Mode (Sentera GPS)

Use gimbal slot 2. This will power the sensor/gimbal/light sensor/external GPS. The 6X will use the light sensor/GPS module for GPS and altitude data, as well as allow the 6X to self trigger based on the auto-height overlap settings.


Light Sensor/GPS Mounting

If a Light Sensor/GPS was purchased with the 6X, the hardware to mount to the drone needs to be installed. See the instructions linked below.


Adding 6X to DJI Pilot


DJI M300/350

6X Series Sensors Installation - DJI M300/350

6X & Light Sensor

Instructions

  1. Install light sensor/GPS into mounting tray.

  2. Connect USB-C cable into light sensor.

  3. Secure USB-C Cable.

  4. Install 6X gimbal into Skyport.

  5. Connect USB-C cable to gimbal.

  6. Power On the aircraft.

The light sensor is connected to the USB-C port on the upper portion of the gimbal not the USB-C port on the sensor itself.

If a light sensor is not bring used, simply omit the related steps.


Dual Gimbal Setup

For dual gimbal mount setup the 6X should be placed in the correct port for the slected mode of operation (sensor configuration).

Integrated Mode

Use gimbal slot 1. This will power the sensor/gimbal/light sensor, and allow the sensor to communicate with the DJI autopilot and ingest trigger commands, GPS, altitude, and attitude information.

Stand Alone Mode (Sentera GPS)

Use gimbal slot 2. This will power the sensor/gimbal/light sensor/external GPS. The 6X will use the light sensor/GPS module for GPS and altitude data, as well as allow the 6X to self trigger based on the auto-height overlap settings.


Light Sensor/GPS Mounting

If a Light Sensor/GPS was purchased with the 6X, the hardware to mount to the drone needs to be installed. See the instructions linked below.


Adding 6X to DJI Pilot


FieldAgent

6X Series Sensors Data Import for FieldAgent

FieldAgent Desktop Import and Ordering

FieldAgent Web

Importing 6X multispectral imagery is not supported on FieldAgent web. Only 6X RGB imagery can be imported via FieldAgent web.

Inspired Flight

Getting Started

To ensure the gimbal steering for the 6X Series Sensors will work for Inspired Flight aircraft two things need to be checked:

Verify that the 6X is on firmware version 3.13.1 or higher

Verify that the Inspired Flight compatibility parameters are set on the aircraft


Manual Gimbal Control

To manually control the gimbal use the rocker wheel on the left hand side of the herelink controller.

Pushing the wheel to the right will point the gimbal downwards (NADIR).

Pushing the wheel to the left will point the gimbal forward.


Automated Gimbal Control

To set a gimbal angle for a mapping mission do the following:

  1. Navigate to the Plan screen

  2. Select Survey (or other mission type)

  3. Select the Waypoint option from the left hand menu

  4. Place a waypoint into the flight plan

  5. In the waypoint mission item on the right hand side of the screen select the camera drop down menu.

  6. Check the gimbal options box, then enter your desired gimbal pitch angle.

  7. Then plan the rest of your flight as normal. The gimbal will change the pitch angle of the sensor at the waypoint and remain at that pitch angle throughout the rest of the mission. to add additional gimbal pitch changes use the same method between survey mission items, or plan a waypoint mission and add the gimbal change commands as desired.

Metashape

6X Series Sensors Data Import for Agisoft Metashape

Post Processing In Metashape

Installation

6X Series Sensors - Incident Light Sensor Installation

Introduction

Learn how to install the mounting hardware for the light sensor/GPS module for your aircraft.


DJI Aircraft


Freefly Aircraft


Inspired Flight Aircraft


Introduction

Reflectance Panel Introduction

A reflectance panel has known spectral properties and can be used to convert imagery to reflectance values. The process of converting imagery into reflectance values allows for time series comparisons of imagery because it normalizes the data for different lighting conditions.

The reflectance panel is an optional component for the 6X sensor. The reflectance panel is a white balance card used to calibrate 6X images by measuring the reflectance of the card across the spectrum of light captured by the sensor (for example, red, green, blue, near infrared, and/or red edge bands).

Pix4D

6X Series Sensors Data Import for Pix4D

Post Processing in Pix4D

Accessories
DJI M200/210
Adding 6X Sensors to DJI Pilot
DJI M300/350
Adding 6X Sensors to DJI Pilot

Communication Protocol

6X Series Sensors Integration - Communication Protocol

Freefly

GPS Messages

6X Series Sensors - Integration Information - GPS Messages

Only U-Blox and MAVlink GPS messages are supported for GPS data input.

DJI M300/350
DJI M200/210
DJI Inspire 1 & 2
Freefly Astro
Inspired Flight IF1200A
Inspired Flight IF800

DJI

Gimbal Steering

Firmware Update
Inspired Flight Compatibility Settings - IF800 & IF1200

Firmware Update

6X Series Sensors Firmware Update Introduction

Getting Started

Learn how to update the firmware for the 6X sensor.


Firmware Email Notification Sign up

Stay up to date with the latest firmware. Sign up and receive an email whenever we release a new firmware for your sensor

Latest Version


Equipment


How To Update


How To Change Configuration

6X Series Sensors How to Change Configuration Settings

Navigate to Configuration Page

Click Change Button

Select Desired Configuration

Depending on your current or desired configuration the All Platform Configurations check box may need to be selected to display the option in the drop down menu.

Click Apply and Restart

Wait For Sensor to Reconnect

Verify Correct Configuration is Shown

Status LEDs

6X Series Sensors Status LEDs

Red Solid

The 6X is booting/not ready.

Green Solid

The 6X has booted and a session has started.

White Flash

The 6X took a picture.

Red Flashing

The 6X has detected an error.

This can also be a sign of the internal storage being full.

QGIS

6X Series Sensors Post Processing with QGIS

Post Processing In QGIS With Sentera Plugin

Integrated Mode Details

About

In this mode the 6X ingests triggering commands and GPS/Altitude/Attitude from the drone to capture and geotag imagery. This is the most common operational mode.

Default Configuration

Aircraft
Config Name

DJI M300/350

DJI Skyport

DJI M200/210

DJI Skyport

Freefly Astro

Freefly Astro Gimbal

Inspired Flight IF1200A

Inspired Flight IF1200A

Inspired Flight IF800

Inspired Flight IF800

Adding 6X Sensors to DJI Pilot

Instructions

  1. Begin creating a mapping mission in DJI pilot

  2. Open the Select Camera Model drop down

  3. Press Create

  4. Fill in the parameters as shown, then press Done

  5. You will now be able to select the Sentera 6X from the custom camera list.

The parameters listed in step 4 will work for all 6X series variants.

Installation

6X Series Sensors Quick Start Guide - Installation

Getting Started

Everything needed to install the 6X sensor and light sensor/GPS (optional) will be included in the case. This is the best place to start with a new 6X.

It is recommended to install the 6X and related equipment onto the aircraft in a controlled environment like an office before your first flight to ensure that everything fits and powers on as expected.


Light Sensor/GPS Mount Installation

Use the provided mount(s), screws, and alcohol wipes to install the light sensor/GPS mounting hardware.

Detailed Mounting Hardware Installation Instructions


6X & Light Sensor Installation

  1. Install the light sensor/GPS and 6X onto the aircraft.

  2. Connect the USB-C to USB-C cable to the light sensor/GPS and the gimbal.

  3. Power on the aircraft.

Detailed Sensor Installation Instructions


DJI M300/350

6X Series Sensors - Incident Light Sensor Installation - DJI M300/350

Light Sensor/GPS Mount

  1. Clean mounting bracket with alcohol wipe and let dry.

  2. Place mounting bracket onto the aircraft. The longer legs of the mounting bracket should be pointed towards the front of the aircraft.

  3. Use the provided screws to attach the bracket to the aircraft.

  4. Remove the adhesive backing from the mounting tray and place onto the mounting bracket as shown. Press firmly into place.

  5. Use the alcohol wipe to clean the side of the aircraft and let dry.

  6. Remove the adhesive back of the cable clip and attach to the side of the aircraft as shown. Press firmly into place.

Install the equipment in the shown orientation. This allows the light sensor, cable, and gimbal to be connected safely and effectively.

Operation

6X Series Sensors Operation

Introduction

Learn more about operating the 6X sensor, what flight settings should be used, and how to offload data.


Standard Operating Procedure


Recommended Flight Settings


Status LEDs


SD Card


Data Offload


DJI Inspire 1 & 2

6X Series Sensors - Incident Light Sensor Installation - DJI Inspire 1 & 2

Light Sensor/GPS Mount

  1. Remove the 2 screws shown using a 2.5mm hex driver.

  2. Place mounting bracket onto the aircraft as shown.

  3. Reinstall the screws.

  4. Clean the top of the mounting bracket with an alcohol wipe and let dry.

  5. Remove the adhesive backing from the mounting tray and place onto the mounting bracket as shown. Press firmly into place.

  6. Use the alcohol wipe to clean the side of the aircraft and let dry.

  7. Remove the adhesive back of the cable clip and attach to the side of the aircraft as shown. Press firmly into place.

Install the equipment in the shown orientation. This allows the light sensor, cable, and gimbal to be connected safely and effectively.

Operation

6X Series Sensors - Incident Light Sensor Operation

Introduction

Learn about the operation of the incident light sensor/GPS module.


How To Use


Status LEDs


Introduction

6X Series Sensors - Incident Light Sensor Introduction

Purpose

The incident light sensor is used to measure the color spectrum of incident light from the sun.

The GPS receiver is used for position information for geo-tagging the imagery at the time of capture. It may also be used to convey to the 6X when to trigger image capture.

The 6X does not require the use of an external GPS for geotagging purposes. Fully integrated systems can obtain position information from the aircraft autopilot. See the configuration settings for more information.


Incident Light Sensor & GPS

The incident light sensor and GPS module (ILS-GPS) is a combined sensor module. Including the incident light sensors and a GPS receiver.

The intended use of this module is to collect incident light information for the imagery during the flight to help correct for non-uniform lighting.

The GPS receiver may or may not be used for geo-tagging position information depending on the configuration of the 6X.


Stand-alone GPS

The stand-alone GPS module only has a the GPS receiver onboard. The intended use of this module is to geo-tag the imagery for 6X installations that do not receive position information from the aircraft autopilot.


Data Offload

6X Series Sensors Data Offload Introduction

Introduction

Use the following pages to learn about what equipment is needed to offload data from the 6X, how to offload the data, and how to import the data into post processing software.


Equipment


Offload Process


Data Import


File Structure


Inspired Flight IF800

6X Series Sensors - Incident Light Sensor Installation - IF800

Instructions

  1. Use the provided screws to attach the mounting bracket to the aircraft.

  2. Clean the mounting bracket surface with the provided alcohol wipes.

  3. Remove the backing on the mounting tray and install onto the mounting bracket.

  4. Use the alcohol wipe to clean the surface of the aircraft near the strobe.

  5. Remove the backing on the cable clip and install onto the aircraft as shown.

The Case foam may need to be slightly modified to accommodate the cable clip.

The mounting bracket does not need to be removed to be stored in the case, but the light sensor itself does need to be removed from the mounting tray.

Equipment

6X Series Sensors Data Offload Equipment

Required

Optional

Configuration & Settings

6X Series Sensors Configuration & Settings

Introduction

The 6X hosts a local web page that is used for several applications including: Status, Configuration, Image Adjustment, and updating firmware.


How To Access Web Page User Interface


Home Page


Configuration Page


Image Adjustment Page


Firmware Update


File Structure

6X Series Sensors File Structure

Introduction

The 6X uses an internal SSD to store the captured data. This article will describe the file storage structure.


File Structure

The 6X file structure is as follows:

data > snapshots > session folders > data sub-folders (rgb, NIR, Red Edge, etc) > image files

The session folders are labeled as YYYY-MM-DD_HH-MM-SS. Where YYYY-MM-DD is the date that the imagery was collected on, and HH-MM-SS is the UTC time that the session folder created at (when the 6X status lights turned green).

If the 6X is power cycled between flights over a single area, there will be a session folder for each power up and session start of the camera. i.e. the imagery will be split between each folder.

Inside of each session folder there are 6 sub-folders. These sub-folders contain the imagery from each individual lens/channel of the 6X.

The folders are labeled based on the lens filter (Blue, Green, Red, Red Edge, NIR, RGB, etc). The center wavelength and filter width are also displayed.

Inside of each sub-folder the imagery that corresponds to the folder will be found.


Inspired Flight IF1200A

6X Series Sensors - Incident Light Sensor Installation - IF1200A

Instructions

  1. Remove the two screws near the GPS on the right hand side (Nearest the A) as shown.

  2. Install the mounting bracket as shown.

  3. Use the provided screws to secure the bracket using the holes the original screws were removed from.

  4. Install the first cable clip on the top side of the aircraft in the area shown.

    1. Use the provided alcohol wipes to clean the surface of the drone before adhering the clip.

  5. Install the second cable clip on the underside of the aircraft in the area shown.

    1. Use the provided alcohol wipes to clean the surface of the drone before adhering the clip.

The mounting bracket does not need to be removed to be stored in the case, but the light sensor itself does need to be removed from the mounting tray.

Specifications

Reflectance Panel Specifications

Panel Types & Coefficients

Sentera offers two reflectance panels with different coefficients for each band. Check the cover of your panel to verify which coefficients you should use. You can also consult the image on the inside of your panel to determine which version you have, and use the following values.

Coefficients

Item
Value

Coefficients

Item
Value

These values only apply to the reflectance panels provided by Sentera.

Stand Alone Mode Details

About

In this mode the 6X uses GPS data from the light sensor/GPS module to determine when it should trigger the camera.

Aircraft must be flown in an East facing direction.

OEM 6X Sensors flown in this configuration will have Pitch & Roll locked at 0 degrees.

Default Configuration

Aircraft
Config Name

Data Offload

6X Series Sensors Quick Start Guide - Data Offload

  1. Power 6X using aircraft battery or AC power cable.

  2. Connect 6X to a computer using the provided USB-C cable.

  3. Open a file browser.

  4. In the address bar type \\192.168.42.1 and press enter.

  5. Login into the sensor. Enter the user name sentera and press okay. There is no password.

  6. Select the data folder.

  7. Select the snapshots folder.

  8. Select the session folder with the correct data and copy it to the computer or an external hard drive.


Detailed Data Offload Instructions

Freefly Astro

6X Series Sensors - Incident Light Sensor Installation - Freefly Astro

Light Sensor / GPS Mast

Instructions

  1. Attach the mounting tray to the mast using the attached adhesive tape.

  2. Use the provided M3 x 8mm screws and 2.5mm hex driver (provided with Astro) to attach the mast to the aircraft.

When installed correctly the Light Sensor/GPS mount should allow the Astro to fit in the case while still attached. However, the light sensor itself will need to be removed from the mounting tray.

How To Use

Reflectance Panel Instructions

Introduction

Learn how to use the reflectance panel with the 6X sensor.


Push Button Method

For light sensors with the push button feature


Manual Method

For legacy light sensors without the push button.


Calibration Imagery Post Processing


How To Change Overlap Settings

6X Series Sensors How to Change Overlap Settings

Navigate to Configuration Page

Locate Trigger Field and Select Overlap

Set Overlap

Press Apply and Restart

Wait For Sensor to Reconnect

Verify Correct Overlap is Shown

Calibration Images

Reflectance Panel Calibration Images

The 6X can capture calibration imagery using the reflectance panel. This calibration imagery is used to help correct for changing lighting conditions that may occur during the flight.

During the calibration image collection process 12 images will be captured where each image has varying exposure/ISO values.

Reflectance panel images should be captured immediately before and/or after drone survey data collection.

Mechanical

6X Series Sensors Mechanical Integration Information

All dimensions are given in Inches.

Dimensions

Mounting Locations

Center of Gravity

FPA Locations

Customization

6X Series Sensors Customization Information

Filter Configuration Options

Custom filtering options for the 6X sensor can be supported.

Center Wavelength Spectral Range:

Filters in the 450nm to 975nm range can be supported. The sensitivity of the monochrome sensors drops off dramatically outside of these regions. Pass bands placed outside of these regions would be excessively wide and spectral content would be heavily weighted to one end of the pass band.

The minimum required bandwidth is driven by the spectral sensitivity of the sensor, the reflectance of the imaged content, sunlight intensity, and typical lens transmissivity. At 750nm, for example, the sensitivity of the camera, reflectance of the vegetation, sunlight intensity, and lens transmissivity are all quite high. Therefore, only a narrow pass band is needed to pass sufficient light to the sensor.

These guidelines assume the user is imaging vegetation. Non-vegetation applications need to be looked at on an individual basis.


Imager Configurations

Changing the imager configuration of the 6X is generally not supported. I.e. removing the RGB imager for another monochrome imager, and vice versa. The configurations of the 6X and it's imagers are inherent to the hardware design and cannot be easily changed.


Status LEDs

6X Series Sensors - Incident Light Sensor Status LEDs

Solid Red

Powered, not connected.

Solid Green

Powered and connected.

Operational GIF

Nominal operation of the Light Sensor.

Blue

0.1116

Green

0.1099

Red

0.1079

Red Edge

0.1071

Near Infrared

0.1050

Blue

0.1059

Green

0.1054

Red

0.1052

Red Edge

0.1052

Near Infrared

0.1055

DJI Inspire 1

Sentera GPS

DJI Inspire 2

Sentera GPS

DJI M100

Sentera GPS

OEM 6X Sensor

Sentera GPS

RGB calibration photo example
How To Access Web Page User Interface
Installation
Installation
Standard Operating Procedure
Recommended Flight Settings
Status LEDs
SD Card
Data Offload
How to Use
Status LEDs
Equipment
Offload Process
Offload Process For MacOS
Data Import
File Structure
How To Access Web Page User Interface
Home
Configuration
Image Adjustment
Firmware Update
Data Offload
Push Button
Manual
Calibration Imagery Post Processing
How To Access Web Page User Interface
Latest Version
Equipment
How To Update

USB-C Cable

Power Supply or Aircraft Battery

Laptop/Computer (Windows & Mac compatible)

External Hard Drive

Replacement Cables

6X Series Sensors Replacement Cables

Sensor Cables

Data Transfer Cables

USB-C to USB-A

USB-C to USB-C

Cable
Cable Type
Length

USB-A to USB-C

10ft

USB-C to USB-C

6ft

USB-A to USB-C

3ft

USB-A to USB-C

3.3ft

USB-A to USB-C

6ft

USB-A to USB-C

6ft

USB-C to USB-C

3ft

USB-C to USB-C

3.3ft

USB-C to USB-C

6.6ft

Power Cable

SKU: 34028-00

Contact [email protected] or your sales rep to purchase a replacement 6X power supply.


Light Sensor/GPS Cables

Cable
Aircraft
Link

M300 M350

Inspire 1 Inspire 2 M100 M200 M210

Astro


OEM/Integrator Cables

Contact [email protected] or your sales rep to purchase a replacement 6X integrator cables.

Data Import

6X Series Sensors Data Import Introduction

Introduction

6X uses standard metadata tagging formats and labels, such as EXIF and XMP. They are compatible with standard GIS and image processing tools, such as Pix4D.

The images are geo-tagged, not geo-tiffs, and as such, do not natively import into ArcGIS or other similar tools. Additional processing through Pix4D, Agrisoft Metashape, ODM, custom scripts or FieldAgent, is required.

6X implements a custom processing pipeline that is designed to maintain high linearity between a recorded digital number (DN) and irradiance. This characteristic is critical for utilization and analysis of multispectral data.


Co-Registration

All image layers are captured simultaneously. The TIFF image layers are co-registered by the 6X onboard and in real-time. Registration, vignetting correction, and RGB color correction, can all be turned off, if desired.


Folder Structure

Each session folder created by the 6X will contain 6 subfolders. One for each imager on the sensor.


Common Post Processing Tools

How to Use

6X Series Sensors - Incident Light Sensor/External GPS How To Use Instructions

Before Starting

Reflectance Panel

If a reflectance panel is also being used see the page linked below:


Install Light Sensor/GPS

  1. Install the light sensor and gimbal onto the aircraft.

  2. Connect the USB-C cable to the light sensor.

  3. Secure the cable to the aircraft.

  4. Connect the USB-C cable to the port on the gimbal.

Power on Aircraft & Verify Status LEDs

  1. Power on the aircraft. This will also power the gimbal, sensor, and light sensor on.

  2. Verify the Status LEDs shown below have all turned solid green.

Fly

The sensor and light sensor are now ready for flight.

Freefly Compatibility Settings - Astro

Intro

Current Astro firmware and 6X firmware requires two parameters to be set for seamless operation. This requirement will be removed in an upcoming firmware release. Please use the page linked below for instructions on how to set the parameters.

Instructions

  1. Power on Astro and hand controller & connect

  2. Open AMC

  3. Enter advanced mode by rapidly tap on the Auterion logo in the upper left hand corner until a dialog box appears.

  4. Press Switch to Advanced

  5. Press the Auterion logo in the upper left hand corner and press Advanced

  6. Scroll down to Parameters on the left hand menu

  7. In the search bar search "baud"

  8. Change SER_EXT2_BAUD to 115200 8N1 and press Save

  9. In the search bar search "MAV"

  10. Change the MAV_2_MODE from GIMBAL to Normal and press Save

  11. Turn the aircraft off

  12. Connect the sensor to the aircraft

  13. Power on aircraft

  14. Restart AMC

  15. Verify the lights on the 6X turn solid green

SD Card

6X Series Sensors SD Card

Purpose

The Micro SD card is used for recording diagnostic log file data.

Images are NOT written to the SD Card. Images are stored on the internal SSD.


Specifications

Item
Value

Size

32GB

Format

FAT32

UHS Speed Class

Class 3

Video Speed Class

Class 30

Application Performance Class

Class 1

Bus Interface

UHS-I


Provided Card


SD Card Formatting Tool

Setup

6X Series Sensors Quick Start Guide - Setup

New 6X Sensors

Brand new 6X sensors should come pre-configured for the aircraft/installation that it is expected to be used with. This information is provided when the 6X is purchased from Sentera.

This means that the camera configuration should not need to be changed.

Used 6X Sensors

If a 6X has been used before and the configuration is unknown the camera configuration should be verified and changed as required.

The most common configurations are:

Config
Compatible Aircraft

Gimballed - DJI Skyport

DJI M300/350 DJI M200/210

Freefly Astro Gimbal

Freefly Astro

IF800

Inspired Flight IF800

IF1200

Inspired Flight IF1200

Gimballed - Sentera GPS

DJI Inspire 1 & 2 DJI M100


Specifications

6X Series Sensors - Incident Light Sensor Specifications

Key Specifications

Item
Value

Size

2.30" x 2.20" x 1.00" 58.42mm x 55.88mm x 25.40mm

Weight

58g

Power

4.75V - 5.5V Input Voltage 100mA Max, 50mA Nominal

Interface

USB-C, Push Button

Filters

475nm x 30nm 550nm x 20nm 670nm x 30nm 715nm x 10nm 840nm x 20nm

GPS Receiver

U-Blox NEO-M8N

GPS Output

Ublox


Dimensions

Introduction

6X Series Sensors Integration Information - Introduction

There are multiple options available for users to interface with the 6X. These interfaces support the following hardware devices:

  • Sentera Light Sensor/GPS based triggering/metadata

  • DJI Skyport based systems (plug and play gimbal mount)

  • Freefly Dovetail based systems (plug and play gimbal mount)

  • MAVLink based systems (3.3V UART)

  • Sentera based systems (ethernet)

  • Customized ICD options, available upon request

  • Gremsy T3/S1 Hyper Quick Mount based systems (plug and play gimbal mount)


Cables to interface to the sensor can be purchased directly from Sentera upon request.


I/O

Communication Protocol

Mechanical

Gimbal Connectors

Electrical Connectors

CAD Download

EXIF and XMP Tags


Operation

6X Series Sensors Quick Start Guide - Operation

Getting Started

  1. Take your aircraft, 6X, and related gear to your desired flight location.

  2. Assemble aircraft.

  3. Install 6X & Light Sensor/GPS.

  4. Power aircraft

  5. Verify a session has started (status lights turn green).

  6. Capture calibration images (optional).

  7. Verify camera model, altitude, overlap , and flight speed settings in flight app.

  8. Fly.

  9. Offload data (optional).


Detailed Operation Instructions

Thermal Temperature Conversion

6X Series Sensors - Thermal Temperature Conversion

Thermal Temperature Conversion Formula

.Tif files from the 6X thermal are recorded in Kelvin*100. As a result, images must be converted to be viewed in Celsius.

To convert thermal pixel values to degrees Celsius:

Degrees Celsius=DNLWIR100−273.15Degrees\ Celsius = \dfrac{DN_{LWIR}}{100} - 273.15Degrees Celsius=100DNLWIR​​−273.15


Grey Images

Raw 6X images off the 6X Thermal will appear solid grey when viewed on most basic image viewers (ex. Windows Photo Viewer). The color scale on a basic photo viewer is set to the range of all possible temperatures that the 6X thermal sensor can record; Black being the coldest and white being the hottest. Relative to the range of possible temperatures, the range of temperatures recorded in a typical 6X image is relatively small. This relatively small range is somewhere in-between the coldest (black) and hotest (white) extremes, causing the image to appear as a nearly constant grey.

Grey image example

Most advanced imagery software will automatically adjust the displayed color range to match the range of temperatures recorded in an image. As a result, raw images viewed using most GIS tools will highlight the temperature differences you'd expect to see in a thermal image.

The image shown below is the same "grey" image seen above, but as it appears in Irfanview. QGIS and other GIS tools will similarly convey the temperature differences in raw imagery.

detailed image example

Free Recommended Image Viewers


Inspired Flight IF800

6X Series Sensors Installation - IF800

6X & Light Sensor

Instructions

  1. Install light sensor/GPS into mounting tray.

  2. Connect USB-C cable into light sensor.

  3. Secure USB-C Cable.

  4. Install 6X gimbal into smart dovetail.

  5. Secure smart dovetail latch.

  6. Connect USB-C cable to gimbal.

  7. Power on the aircraft.

The light sensor is connected to the USB-C port on the upper portion of the gimbal not the USB-C port on the sensor itself.

If a light sensor is not bring used, simply omit the related steps.

Light Sensor/GPS Mounting

If a Light Sensor/GPS was purchased with the 6X, the hardware to mount to the drone needs to be installed. See the instructions linked below.


Compatibility

If you have an IF800 that was not configured for Sentera sensors by Inspired Flight or Sentera, use the following instructions:

Anatomy

6X Series Sensors - Incident Light Sensor Anatomy

Isometric

Front

Back

Bottom

Specifications

6X Series Sensors Specifications

Key Specifications

Item
Value

Channels

The monochrome channels are based on 3.2MP global shutter focal plane arrays. These are commonly called the narrowband channels. Each narrowband channel optical path includes a high-quality optical filter.

The RGB channel is a 20.1 MP Bayer-filtered rolling shutter imager. The micro-lens filtering on the focal plane array provides RGB imaging, and this single image channel provides a 3-band RGB product.

Channel
Passband
Configuration
Channel
Passband
Configuration

Channel
Passband
Configuration


Imager Specifications

RGB Imager

Item
Value

Monochrome Imagers

Item
Value

Thermal Imager

Item
Value

Thermal Imager Pro

Item
Value

Specification Sheet Download

6X Multispectral

6X Thermal

6X Thermal Pro


Sensor Outputs


Dimensions

Dimensions are given in inches.


Sensor Orientation Reference

How To Change Image Settings

6X Series Sensors How to Change Image Adjustment Settings

Navigate to Image Adjustment Page

Set Desired Values

The settings on this page can be applied while a session is currently running and no reboot of the camera is needed.

Press Apply

After modifying one or more values, click the ‘Apply’ button in the lower right corner of the page. The settings will be updated for the next trigger.

Test Image (optional)

If a session is currently running, the ‘Capture Image’ button will be enabled on this page to allow more rapid testing of settings changes. Sessions can be started from the `Home` page if one isn’t currently running.

Large changes to autoexposure will apply right away, but the camera may take 10+ seconds to stabilize on the new exposure settings. Other settings changes are reflected in the images much quicker.

Inspired Flight IF1200A

6X Series Sensors Installation - IF1200A

6X & Light Sensor

Instructions

  1. Install light sensor/GPS into mounting tray.

  2. Connect USB-C cable into light sensor.

  3. Secure USB-C Cable using upper cable clip.

  4. Secure USB-C Cable using lower cable clip.

  5. Install 6X gimbal into smart dovetail.

  6. Secure smart dovetail latch.

  7. Connect USB-C cable to gimbal.

  8. Power on the aircraft.

The light sensor is connected to the USB-C port on the upper portion of the gimbal not the USB-C port on the sensor itself.

If a light sensor is not bring used, simply omit the related steps.

Light Sensor/GPS Mounting

If a Light Sensor/GPS was purchased with the 6X, the hardware to mount to the drone needs to be installed. See the instructions linked below.


Compatibility

If you have an IF1200 that was not configured for Sentera sensors by Inspired Flight or Sentera, use the following instructions:

Standard Operating Procedure

6X Series Sensors Standard Operating Procedure Introduction

Operational Modes

The 6X can operate in two different modes. Each of these modes has a slightly different Standard Operating Procedure.


Integrated Mode

In this mode the 6X ingests triggering commands and GPS/Altitude/Attitude from the drone to capture and geotag imagery. This is the most common operational mode.

Supported Aircraft:

  • DJI M300/350

  • DJI M200/210

  • Freefly Astro

  • Inspired Flight IF800 & IF1200


Stand Alone Mode (External GPS)

In this mode the 6X uses GPS data from the light sensor/GPS module to determine when it should trigger the camera.


Notes

Operational mode and capture settings are selected using the configuration menu.

Advanced or custom configurations of the 6X may required a modified standard operating procedure.

Equipment

6X Series Sensors Firmware Update Required Equipment

Gimbal Connectors

6X Series Sensors Gimbal Connector Integrations

Introduction

The 6X gimbal supports several interface options for mounting & connecting to an aircraft.


Smart Dovetail


Gremsy HDMI Hyper Quick


DJI XT30/Skyport


Configuration
Standard Operating Procedure
Inspired Flight IF800
Inspired Flight Compatibility Settings - IF800 & IF1200
How To Access Web Page User Interface
Inspired Flight IF1200A
Inspired Flight Compatibility Settings - IF800 & IF1200
Integrated Mode
Stand Alone Mode (External GPS)
Smart Dovetail
Gremsy HDMI Hyper Quick
DJI XT30
How To Use

For Gimballed Sensors

Connect the light sensor/GPS to the USB-C port on the gimbal

For Non-Gimballed Sensors

Connect the light sensor/GPS to the USB-C port on the 6X

I/O
Communication Protocol
Mechanical
Gimbal Connectors
Electrical Connectors
CAD Download
EXIF and XMP Tags

SKU: 24140-00

SKU: 24141-00

Anker
Cable Matters
Anker
Cable Matters
Anker
Anker
Anker
Cable Matters
NIMASO
https://www.amazon.com/Transfer-Charging-Compatibile-Samsung-MacBook/dp/B094V4RJGC/ref=cm_cr_arp_d_pdt_img_top?ie=UTF8&th=1
https://www.amazon.com/Poyiccot-Degree-Angled-Type-C-Charging/dp/B07QYPZBNH?th=1
https://www.amazon.com/Poyiccot-Degree-Type-C-Charging-Laptop/dp/B07YZ4SHV6?th=1

FieldAgent

Pix4D

Metashape

Size

3.13" x 2.60" x 2.66" (79.5mm x 66mm x 67.5mm)

Weight (sensor only)

290g

Weight (with gimbal)

Skyport: 485g Smart Dovetail: 511g Gremsy T3/S1: 485g

Power

15W Typical, 18W Max 10.5 - 26V Input Range

Image Format

JPEG, TIFF, RAW

Capture Rate

5Hz (sustained)

Storage

512 GB Internal SSD (PCIe NVME)

Interfaces

USB-C, Gigabit Ethernet, Expansion Port

Supported Protocols

DJI, MAVlink V1 & V2, Custom

Capture

Co-Registered

Video

No

1

Blue

475nm x 30nm

2

Green

550nm x 20nm

3

Red

670nm x 30nm

4

Red Edge

715nm x 10nm

5

NIR

840nm x 20nm

6

RGB

N/A

1

Green

550nm x 20nm

2

Long Wave Infrared (LWIR) Thermal

8μ\muμm - 14μ\muμm

3

Red

670nm x 30nm

4

Red Edge

715nm x 10nm

5

NIR

840nm x 20nm

6

RGB

N/A

1

Green

550nm x 20nm

2

Long Wave Infrared (LWIR) Thermal

8μ\muμm - 14μ\muμm

3

Red

670nm x 30nm

4

Red Edge

715nm x 10nm

5

NIR

840nm x 20nm

6

RGB

N/A

CMOS Sensor

Sony IMX147

Shutter Type

Electronic Rolling Shutter

Sensor Size

6.22mm (W) x 4.67mm (H) Diagonal 7.82mm (Type 1/2.3)

Resolution

20.16MP 5184px (H) x 3888px (V)

Image Format

8-bit JPG

Pixel Size

1.20 x 1.20 μ\muμm

Lens Focal Length

7.2mm

Field of View

47°\degree°

Lens F Stop

F2.4

Lens Distortion

1.5%

Filter

IR cut 650nm

CMOS Sensor

Sony IMX265

Shutter Type

Global Shutter

Sensor Size

6.96mm (W) x 5.23mm (H) Diagonal 8.9mm (Type 1/1.8)

Resolution

3.15MP 2048px (H) x 1536px (V) Note: size is reduced with image registration.

Image Format

12-bit TIFF

Pixel Size

3.45 x 3.45 μ\muμm

Lens Focal Length

8.0 mm

Field of View

47°\degree°

Lens F-stop

F1.8

Lens Distortion

-2.0%

Sensor

FLIR Boson 320 Radiometric

Resolution

320px (H) x 256px (V)

Image Format

16-bit TIF

Pixel Size

12 μ\muμm

Lens Focal Length

4.5mm

Field of View

50°\degree°

Lens F-Stop

F1.1

Non-Uniformity Correction (NUC)

Automatic shuttered Flat-Field Correction (FFC)

Spectral Range

LWIR, nominally 8 to 14 μ\muμm

Radiometric Accuracy

±\pm±5°\degree°C accuracy or less depending upon operating conditions

Emissivity

100%

Sensor

FLIR Boson 640 Radiometric

Resolution

640px (H) x 512px (V)

Image Format

16-bit TIF

Pixel Size

12 μ\muμm

Lens Focal Length

9.2mm

Field of View

50°\degree°

Lens F-Stop

F1.1

Non-Uniformity Correction (NUC)

Automatic shuttered Flat-Field Correction (FFC)

Spectral Range

LWIR, nominally 8 to 14 μ\muμm

Radiometric Accuracy

±\pm±5°\degree°C accuracy or less depending upon operating conditions

Emissivity

100%

2MB
6X Multispectral Spec Sheet.pdf
pdf
1MB
6X Thermal Spec Sheet.pdf
pdf
873KB
6X Thermal Pro Spec Sheet.pdf
pdf

6X

(5) 12-bit registered 3.2MP monochrome TIFFs

(1) 8-bit 20.1MP RGB JPG.

6X Thermal

(4) 12-bit registered 3.2MP monochrome TIFFs

(1) 16-bit radiometric thermal TIFF (1) 8-bit 20.1MP RGB JPG

6X Thermal Pro

(4) 12-bit registered 3.2MP monochrome TIFFs

(1) 16-bit radiometric thermal TIFF (1) 8-bit 20.1MP RGB JPG

USB-C Cable

Power Supply or Aircraft Battery

Laptop/Computer

Stand Alone Mode (External GPS)

6X Series Sensors Standard Operating Procedure - Auto-Height Overlap

General Instructions

  1. Assemble aircraft.

  2. Install 6X & Light Sensor/GPS.

  3. Power aircraft

  4. Verify a session has started.

  5. Verify overlap settings on 6X via webpage user interface.

  6. Verify camera model, altitude, overlap, and flight speed settings in flight app.

    • Aircraft must be flown East facing.

  7. Capture calibration images (optional).

  8. Fly.

  9. Offload data (Optional).


Detailed Instructions

Assemble Aircraft

Assembly the aircraft per manufacturer instructions.

Attach 6X & Light Sensor/GPS

  1. Attach 6X to the aircraft.

  2. Attach the light sensor/GPS to the aircraft.

  3. Connect the light sensor/GPS to the 6X using the provided USB-C to USB-C cable.

  4. Secure the USB-C to USB-C cable to the aircraft.

Power Aircraft & Wait For Session Start

  1. Power the aircraft on.

  2. Let the 6X boot (solid status red LEDs).

  3. Verify the 6X has started a session (solid green status LEDs). This take about 1 minute and requires a GPS fix.

Verify Camera Settings

  1. Connect USB-C cable to the USB-C port on the 6X.

  2. Connect the other end of the cable to a laptop.

  3. Open the webpage user interface.

  4. Select Configuration.

  5. Under Trigger verify the overlap is set to the desired percentage.

  6. Unplug the USB-C cable from the 6X.

Verify Flight Settings

Verify the camera model/parameters, flight speed, survey altitude, and overlap settings.

The side overlap setting in the flight planning app should match the overlap setting on the 6X. This ensures the aircraft will fly with the appropriate spacing between transects that the 6X is expecting.

Aircraft must be flown in an East facing direction.

Capture Calibration Images (Optional)

  1. Place the reflectance panel on a flat surface in direct sunlight.

  2. Pick up the aircraft and hold it waist high with the 6X directly over the reflectance panel.

  3. Press the button on the light sensor to start the calibration image capture.

  4. Hold the aircraft over the panel until the image capture is complete.

  5. Set down aircraft and pick up panel.

Fly

Prepare the aircraft for launch, then fly.

Offload Data (optional)

Offload the data after aircraft has landed or fly again.

Smart Dovetail

6X Series Sensors Gimbal Connector Integrations - Smart Dovetail

The 6X gimbal with the Smart Dovetail mounting configuration can be used with Smart Dovetail equipped aircraft.


Connection I/O

The 6X has Serial and Ethernet I/O available on Smart Dovetail hardware.

Pinout Table

Pin
Signal

2

PPS

4

Payload RX

6

Payload TX

7

VBAT

8

GND

9

RX_N

11

RX_P

13

VBAT

14

GND

15

TX_N

17

TX_P

See further information here:


Mechanical Connection

Where to Purchase

Smart Dovetail interfaces can be purchased from Freefly.

Mounting Specs

The Mounting patterns can be found here:


DJI Skyport

6X Series Sensors Integration Communication Protocol - DJI Skyport

Requirements

DJI Skyport operation is available on DJI Skyport equipped hardware:

To have the 6X sensor operate in this mode, the camera must be set up for the DJI Skyport, Gimballed configuration:

If the 6X is not configured for this mode, follow the instruction to update the configuration:

Mode Description

In this mode, the 6X is tightly integrated with the DJI airframe. This allows for gimbal control and image triggering from the DJI hand controller (e.g., using the FieldAgent iOS application). All data necessary for metadata population is available and automatically written to generated imagery.

Skyport Hardware Compatibility

DJI has produced two versions of Skyport hardware, designated as Skyport-V1 and Skyport-V2. A Sentera gimbal built with Skyport-V2 hardware will contain an etching or sticker on the back of the assembly:

A Sentera gimbal built with Skyport-V1 hardware will not contain a corresponding etching or sticker. DJI aircraft only support specific versions of DJI Skyport hardware. The list of compatibility follows:

DJI Airframe
Skyport Hardware Compatibility

M200/M210 V1

Skyport-V1 only

M200/M210 V2

Skyport-V1 only

M300 RTK

Skyport-V1 and Skyport-V2

M350 RTK

Skyport-V2 only

Contact Sentera if desiring to fly a Sentera gimbal on an incompatible DJI airframe. It's possible for Sentera to modify a gimbal (e.g., Skport-V1 -> Skyport-V2), but this requires significant hardware modification.

Stand alone Sentera GPS mode can still be used if operating on an incompatible airframe. Additional setup will be required though (e.g., configuration of 6X overlap percentage) as the camera is no longer tightly integrated with the airframe.

Skyport Firmware Compatibility

DJI aircraft require a specific version of DJI Skyport firmware to operate successfully. The following list identifies this required firmware:

DJI Aircraft
Skyport-V1 Firmware
Skyport-V2 Firmware

M200/M210 V1

v01.03.0009

-

M200/M210 V2

v01.04.0000

-

M300 RTK

v01.04.0000

V01.03.05.00

M350 RTK

-

V01.03.05.00

The version of DJI Skyport firmware can be viewed and upgraded using the DJI Assistant 2 application. See DJI documentation for detail and instructions.

How To Access Web Page User Interface

6X Series Sensors How To Access The Webpage UI

Power Sensor

Power the sensor using the AC power adapter or install into the aircraft and turn the aircraft on.

Then wait for the LEDS on the sensor to do the following:

Power Method
LED Behavior

AC Power Adapter

Flashing Red

Drone Power

Solid Green (Requires GPS Fix) Solid Red (After 2 minutes w/o GPS)

This verifies that the sensor is fully booted.

Connect To Computer

Connect the sensor to the computer using a USB cable.

Use the USB-C port on the side of the sensor not the USB-C port on the top of the gimbal.

Use the USB-C Cable provided with the 6X. This cable gives the best and most reliable performance.

Verify Connection

Open your wifi/network panel from the task bar. Verify that you see "unidentified network - No internet". This is the 6X appearing as a network device.

Open Web Browser

Open a web browser (chrome, safari, firefox, etc).

No internet connection is required.

Enter IP Address

In the address bar enter 192.168.42.1 and press enter/go.

Page Appears

The webpage will appear.

If the webpage can't be connected to after a few minutes try the following: - Verify the sensor has had around a minute to boot. - Turn off/disconnect any Wi-Fi or Ethernet connections that have internet access. - Verify the USB cable being used is the provided cable or one of the listed compatible cables.

If the 6X is being powered with the AC power adapter, the No Gimbal Communication application will appear. This is expected as the gimbal itself is now powered.

Inspired Flight Compatibility Settings - IF800 & IF1200

Introduction

For inspired flight systems that were not purchased through or configured by Inspired Flight or Sentera use the following instructions to configure your aircraft for Sentera sensors.


Instructions

  1. Power on aircraft and hand controller

  2. Open IGC/QGC and verify connection to aircraft

  3. Tap the IGC Icon in the upper left hand corner and enter the vehicle setup menu

  4. Scroll down in the left hand menu and select Parameters

  5. In the search bar search "CAM2_TYPE"

  6. Set CAM2_TYPE = 5 and press Save

  7. Repeat this process for the following parameters listed in the table below

  8. Once all of the parameters are set power down the aircraft

  9. Connect the sensor to the aircraft

  10. Power on the aircraft

  11. Wait for the lights on the sensor to turn solid green (requires a GPS fix)

The shoulder wheel on the hand controller should now also control the gimbal pitch of the camera.

Parameter
Value

CAM2_TYPE

5

SERIAL4_PROTOCOL

MAVlink 2

SERIAL4_BAUD

115200

SR4_EXTRA1

10

SR4_EXTRA3

2

SR4_POSITION

4

SR4_EXT_STAT

10

MNT1_TYPE

Gremsy

MNT1_RC_RATE

60 deg/s

MNT1_PITCH_MIN

-90 deg

RC5_OPTION

Mount1 Pitch

RC5_DZ

20 PWM

DJI M200/210

6X Series Sensors - Incident Light Sensor Installation - DJI M200/210

Light Sensor/GPS Mount

  1. Clean the top of the aircraft with an alcohol wipe and let dry.

  2. Remove the adhesive backing from the mounting tray and place onto the mounting bracket as shown. Press firmly into place.

  3. Use the alcohol wipe to clean the side of the aircraft and let dry.

  4. Remove the adhesive back of the cable clip and attach to the side of the aircraft as shown. Press firmly into place.

Place the mounting tray in the shown location. Placing the mounting tray further towards the nose of the aircraft may block the internal aircraft GPS.

Install the equipment in the shown orientation. This allows the light sensor, cable, and gimbal to be connected safely and effectively.

https://support.sentera.com/portal/en/kb/articles/importing-into-fieldagent#Viewing_Permissions

Integrated Mode

6X Series Sensors Standard Operating Procedure - Commanded Triggers

General Instructions

  1. Assemble aircraft.

  2. Install 6X & Light Sensor/GPS.

  3. Power aircraft

  4. Verify a session has started.

  5. Capture calibration images (optional).

  6. Verify camera model, altitude, overlap , and flight speed settings in flight app.

  7. Fly.

  8. Offload data (optional).


Detail Instructions

Assemble Aircraft

Assembly the aircraft per manufacturer instructions.

Attach 6X & Light Sensor/GPS

  1. Attach 6X to the aircraft.

  2. Attach the light sensor/GPS to the aircraft.

  3. Connect the light sensor/GPS to the 6X using the provided USB-C to USB-C cable.

  4. Secure the USB-C to USB-C cable to the aircraft.

Power Aircraft & Wait For Session Start

  1. Power the aircraft on.

  2. Let the 6X boot (solid status red LEDs).

  3. Verify the 6X has started a session (solid green status LEDs). This take about 1 minute and requires a GPS fix.

Capture Calibration Images (Optional)

  1. Place the reflectance panel on a flat surface in direct sunlight.

  2. Pick up the aircraft and hold it waist high with the 6X directly over the reflectance panel.

  3. Press the button on the light sensor to start the calibration image capture.

  4. Hold the aircraft over the panel until the image capture is complete.

  5. Set down aircraft and pick up panel.

Verify Flight Settings

Verify the camera model/parameters, flight speed, survey altitude, and overlap settings.

Fly

Prepare the aircraft for launch, then fly.

Offload Data (optional)

Offload the data after aircraft has landed or fly again.

Compliance

6X Series Sensors Compliance Information

Item
Value

Documentation

CE Declaration of Conformity


NDAA Compliance


Blue UAS

The 6X series sensors eligible for Blue UAS conformity. If Blue UAS is a requirement or you wish to sponsor the 6X for Blue UAS conformity please contact Sentera.


Export Control

6X Thermal and 6X Thermal Pro are export controlled products.

FLIR 320x240 60Hz and 30Hz Fast-Video and 640x480 30Hz Fast-Video (>9Hz) uncooled LWIR Thermal Camera Core products are export controlled and require validated export licenses from the U.S. Department of Commerce prior to export or re-export outside of the United States to certain countries. Strategic Trade Authorized (STA) Countries are an exception. In circumstances whereby "RHP International" delivers a camera to a customer in the U.S. who intends to export or re-export the FLIR camera outside of the United States, whether or not the camera is integrated into another product, it is the customer’s responsibility to apply for the required export license from the appropriate department of the U.S. government. Diversion contrary to U.S. law is prohibited. See below for a list of STA countries and other Export information.

ECCN

6A003.b.4.b

STA Countries

STA countries do not require you to obtain a license, but there are requirements for use of STA- sending the export classification, obtaining a consignee statement from the customer, and sending documentation with the shipment on the use of STA.

STA Countries List
  • Argentina

  • Australia

  • Austria

  • Belgium

  • Bulgaria

  • Canada

  • Croatia

  • Czech Republic

  • Denmark

  • Estonia

  • Finland

  • France

  • Germany

  • Greece

  • Hungary

  • Iceland

  • India

  • Ireland

  • Italy

  • Japan

  • Latvia

  • Lithuania

  • Luxembourg

  • Netherlands

  • New Zealand

  • Norway

  • Poland

  • Portugal

  • Romania

  • Slovakia

  • Slovenia

  • South Korea

  • Spain, Sweden

  • Switzerland

  • Turkey

  • The United Kingdom.


Push Button

Reflectance Panel Instructions - Push Button Method

Before Starting

Reflectance panel images should be captured immediately before and/or after drone survey data collection.


General Instructions

Instructions

  1. Assemble aircraft, 6X sensor, and light sensor.

  2. Power on aircraft.

  3. Wait for 6X and light sensor status LEDs to turn green.

  4. Place the reflectance panel in an open and unobstructed area.

  5. Pick up aircraft and hold at waist height over calibration panel.

    • Ensure aircraft is not shadowing the reflectance panel.

    • Ensure the light sensor is not shadowed by your body.

  6. Press the button on the light sensor to start calibration image capture.

  7. Continue to hold the aircraft over the reflectance panel until image capture completes.

  8. Set down aircraft and pick up panel.


Detailed Instructions

Setup

Setup the aircraft, attach the light sensor and gimbal, then connect the light sensor to the gimbal.

Power On & Verify Session Start

Power the aircraft on. This will also power the gimbal, sensor, and light sensor.

Wait for the lights on the 6X and the light sensor to turn green to verify a camera session has been started.

Place Reflectance Panel

In a clear area, open the reflectance panel and place it on a flat surface.

Try not to touch the gray calibrated reflectance surface with your bare hands or fingers to keep it free from contamination.

Pick Aircraft Up & Start Image Capture

  1. Lift the drone waist-high and centered over the reflectance panel.

  2. Press the button on the light sensor to start the calibration image capture sequence.

  3. Listen for beeps from the 6X Sensor and watch the LED lights on the camera. They will begin blinking green, then white, then turn solid green, which indicates the images were captured.

When holding the drone/sensor over the panel, avoid shadowing the panel, and try to keep the sun at your side, as opposed to in front or behind you when capturing the reflectance panel images.

Avoid shadowing the light sensor with your body.

Verify Calibration Images (Optional)

Connect the Sensor to a laptop and check the current session folder for calibration imagery.

Use the same data offload process linked below to access the calibration images:

Fly

Pack away the reflectance panel, being sure to only handle it by the edges.

Once the reflectance panel images have been recorded it is time to fly and the imagery can be converted to reflectance values after the flight.

Offload Process For MacOS

6X Series Sensors Data Offload For MacOS

Getting Started

The 6X stores the imagery on an internal solid state hard drive that is not removeable from the sensor. Use the process outline below to access the collected data.

Imagery is NOT stored on the micro SD card.

Power On Sensor

Power the 6X using the AC adapter or keep it attached to the aircraft and turn the aircraft on.

When using the AC power supply, connect the cable to the 6X first, then connect the adapter to the outlet.

Then wait for the LEDS on the sensor to do the following:

Power Method
LED Behavior

This verifies that the sensor is fully booted and ready for data offload.

Connect USB-C Cable to Sensor and Computer

Connect the sensor to the computer using a USB cable.

Use the USB-C port on the sensor not the USB-C port on the top of the gimbal.

Use the . This cable gives the best and most reliable performance.

Open A Finder Window

Once the 6X is fully booted it will appear as a network location in the left hand menu of the Finder window.

If the 6X doesn't automatically show up, select the Network option under Locations, as it may appear there the first time the 6X is connected.

If there is a SENTERA-6X-SMB as well, select SENTERA-6X.

If the 6X can be connected to after a few minutes try the following: - Turn off/disconnect any Wi-Fi or Ethernet connections that have internet access. - Verify the USB cable being used is the provided cable or one of the listed .

Select Data Folder

Select the 6X location and then select the data folder.

Select Snapshots

Select Session Folder

Session folders are the folders where the imagery is stored for each flight.

If the 6X is not power cycled between flights that are intended to be separate (i.e. not a battery swap) all of the photos from both flights will be stored in the same session folder.

Copy Folder

Eject Sensor

Use the eject button to release the sensor from the OS. This provides the best reliability.

How To Update

6X Series Sensors Firmware Update Instructions

Download Firmware Update File

Before You Start

Data will be deleted during the firmware upgrade process. Make sure to copy the data off your sensor before performing the update.

This Process works on Windows or Mac.

Power On Sensor

Power the 6X using the AC adapter or keep it attached to the aircraft and turn the aircraft on.

When using the AC power supply, connect the cable to the 6X first, then connect the adapter to the outlet.

Then wait for the LEDS on the sensor to do the following:

Power Method
LED Behavior

This verifies that the sensor is fully booted.

Connect Sensor to Computer

Connect the sensor to the computer using a USB cable.

Use the USB-C port on the sensor not the USB-C port on the top of the gimbal.

Use the . This cable gives the best and most reliable performance.

Verify Connection

Open your wifi/network panel from the task bar. Verify that you see "unidentified network - No internet". This is the 6X appearing as a network device.

Open Sensor Webpage

In a web browser (no internet required) type 192.168.42.1 into the address bar and press enter.

If the sensor is being powered by the AC adapter the screen will appear red with a warning message.

Select Update Firmware

Apply Firmware File

Allow Update to Execute

The software update process begins and may take several minutes. Do not turn off the power or disconnect the cable during this process. It may reboot several times during the process.

Allow Sensor to Self-Reboot

Complete

Once complete, the web page will refresh. You can check the firmware version after the web page refreshes by checking the 'Current Version' at the top of the update page, or the version in the lower left of the web page menu bar.

CE Certification

Yes (6X Multispectral only)

NDAA Compliance

Yes - In Progress

Blue UAS

- 6X Multispectral: Yes - 6X Thermal: Eligible - 6X Thermal Pro: Eligible

Export Control

Yes (6X Thermal & Thermal Pro)

97KB
EC Declaration of Conformity - 6X Sensor.pdf
pdf
152KB
Sentera NDAA Compliance Letter.pdf
pdf

AC Power Adapter

Flashing Red

Drone Power

Solid Green (Requires GPS Fix) Solid Red ( After 2 minutes w/o GPS)

USB-C Cable provided with the 6X
compatible cables
Data Offload
Data Offload

AC Power Adapter

Flashing Red

Drone Power

Solid Green (Requires GPS Fix)

Solid Red (After 2 minutes w/o GPS)

USB-C Cable provided with the 6X
Latest Version
How To Access Web Page User Interface

Smart Dovetail Receiver

6X - Smart Dovetail Interconnect

How to process data from Sentera 6X in Metashape?Helpdesk Portal
https://support.sentera.com/portal/en/kb/articles/6x-how-to-process-data-from-6x-in-metashape

For Gimballed Sensors

Connect the light sensor/GPS to the USB-C port on the gimbal

For Non-Gimballed Sensors

Connect the light sensor/GPS to the USB-C port on the 6X

Offload Process

Offload Process

6X Series Sensors Data Offload Process

Getting Started

The 6X stores the imagery on an internal solid state hard drive that is not removable from the sensor. Use the process outline below to access the collected data.

Imagery is NOT stored on the micro SD card.

Power On Sensor

Power the 6X using the AC adapter or keep it attached to the aircraft and turn the aircraft on.

When using the AC power supply, connect the cable to the 6X first, then connect the adapter to the outlet.

Then wait for the LEDS on the sensor to do the following:

Power Method
LED Behavior

AC Power Adapter

Flashing Red

Drone Power

Solid Green (Requires GPS Fix) Solid Red ( After 2 minutes w/o GPS)

This verifies that the sensor is fully booted and ready for data offload.

Connect USB-C Cable to Sensor and Computer

Connect the sensor to the computer using a USB cable.

Use the USB-C port on the sensor not the USB-C port on the top of the gimbal.

Use the USB-C Cable provided with the 6X. This cable gives the best and most reliable performance.

For OEM sensor configurations, Ethernet connectivity is also available on the 8-pin J4 connector.

Verify Connection

Open your wifi/network panel from the task bar. Verify that you see "unidentified network - No internet". This is the 6X appearing as a network device.

Open A File Browser Window

Navigate To Sensor Storage

Navigate to the 6X internal storage by typing \\192.168.42.1 into the address bar of the file browser and pressing enter.

The sensor may need a minute to fully boot before it can be accessed via the file browser.

If the 6X can't be connected to after a few minutes try the following: - Turn off/disconnect any Wi-Fi or Ethernet connections that have internet access. - Verify the USB cable being used is the provided cable or one of the listed compatible cables.

Adding this file path to Quick Access can be helpful for repeated use.

Login To Sensor

Windows will display a network credentials pop-up. The user name is sentera and there is no password. Press OK.

If your user account is controlled by a domain .\sentera may need to be used as the username. If this does not work please see link below on how to resolve issue.

Select Data Folder

Select Snapshots

Select Session Folder

Session folders are the folders where the imagery is stored for each flight.

If the 6X is not power cycled between flights that are intended to be separate (i.e. not a battery swap) all of the photos from both flights will be stored in the same session folder.

Copy Folder

https://support.sentera.com/portal/en/kb/articles/6x-qgis-sentera-plugin#Install_the_Sentera_QGIS_Plugin

Manual

Reflectance Panel Instructions - Manual Method

Before Starting

The manual start for calibration imagery capture is a legacy feature for light sensors without the push button. If you have a Sentera light sensor without the push button, please contact [email protected] for an upgrade.

Reflectance panel images should be captured immediately before and/or after drone survey data collection.


General Instructions

  1. Assemble aircraft, 6X sensor, and light sensor.

  2. Power on aircraft.

  3. Wait for 6X and light sensor status LEDs to turn green.

  4. Place the reflectance panel in an open and unobstructed area.

  5. Connect a USB-C cable to the USB-C port on the 6X, then to a computer

  6. Open the webpage user interface.

  7. Press the capture calibration button.

  8. Remove the USB-C cable from the 6X.

  9. Pick up aircraft and hold at waist height over calibration panel.

    • Ensure aircraft is not shadowing the reflectance panel.

    • Ensure the light sensor is not shadowed by your body.

  10. Continue to hold the aircraft over the reflectance panel until image capture completes.

  11. Set down aircraft and pick up panel.


Detailed Instructions

Setup

Setup the aircraft, attach the light sensor and gimbal, then connect the light sensor to the gimbal.

Power On & Verify Session Start

Power the aircraft on. This will also power the gimbal, sensor, and light sensor.

Wait for the lights on the 6X and the light sensor to turn green to verify a camera session has been started.

Place Reflectance Panel

In a clear area, open the reflectance panel and place it on a flat surface.

Try not to touch the gray calibrated reflectance surface with your bare hands or fingers to keep it free from contamination.

Connect To Laptop

Connect the 6X to a laptop via the USC-C port on the sensor as shown.

Navigate to Web Page & Press Capture Calibration

Navigate to the 6X webpage.

Disconnect From Laptop

Quickly disconnect the 6X from the laptop.

Pick Aircraft Up & Capture Imagery

Lift the drone waist-high and centered over the reflectance panel.

Listen for a series of beeps from the 6X and watch the LED lights on the camera. They will begin blinking green, then white, then turn solid green, which indicates the images were captured.

When holding the drone/sensor over the panel, avoid shadowing the panel, and try to keep the sun at your side, as opposed to in front or behind you when capturing the reflectance panel images.

Avoid shadowing the light sensor with your body.

Verify Calibration Images (Optional)

Connect the Sensor to a laptop and check the current session folder for calibration imagery.

Use the same data offload process linked below to access the calibration images:

Fly

Pack away the reflectance panel, being sure to only handle it by the edges.

Once the reflectance panel images have been recorded it is time to fly and the imagery can be converted to reflectance values after the flight.

https://support.sentera.com/portal/en/kb/articles/6x-how-to-process-in-pix4d#Stitching_in_Pix4D
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Welcome to the QGIS project!

For Gimballed Sensors

Connect the light sensor/GPS to the USB-C port on the gimbal

For Non-Gimballed Sensors

Connect the light sensor/GPS to the USB-C port on the 6X

Offload Process
Data Offload

MAVlink

6X Series Sensors Integration Communication Protocol - MAVlink

Introduction

MAVLink is a very lightweight messaging protocol for communicating with drones, as well as between onboard drone components. It is a very commonly used protocol in the open source drone community.

6X OEM

6X supports image metadata tagging and sensor triggering using MAVLink V1 messages. The required serial port configuration for the MAVLink controller is 460800, 8-N-1, and it must be connected to 6X connector J2, pins 1/2 (UART2 TX/RX) with 3.3v signal levels.

6X Gimbal

The gimbaled 6X supports image metadata tagging and sensor triggering using MAVlink V2 messages. The MAVlink messages are ingested into the gimbal hardware and automatically forwarded to the 6X.

A custom camera configuration is generally required for MAVlink implementation with a gimbal. Contact [email protected] for more information.

MAVLink gimbal control/pointing is not supported at this time. The gimbal will only point straight down (NADIR) when powered on.

Messages

Image Metadata Messages

  • MAVLINK_MSG_ID_SYSTEM_TIME

  • MAVLINK_MSG_ID_GPS_RAW_INT

  • MAVLINK_MSG_ID_ATTITUDE

  • MAVLINK_MSG_ID_GLOBAL_POSITION_INT

Sensor Triggering Messages

  • MAVLINK_MSG_ID_COMMAND_LONG::MAV_CMD_DO_DIGICAM_CONTROL


Integrate Platforms

Please see the compatibility settings if you are using a fully integrated platform:


Generic Settings

These are generic MAVlink settings for use with the 6X Series sensors.

For non-gimballed sensors use the listed baud rates. For gimballed sensors a baud rate of 115200 or greater is recommended.

PX4 Settings

Parameter
Value
Description

TRIG_INTERFACE

MAVlink

Sets MAVlink messages as the trigger commands.

TRIG_MODE

Distance Based (Survey Mode)

Distance-based on command (Survey mode)

MAV_X_CONFIG

TELEM2 (or any other configurable UART)

Sets the configuration of the desired MAVlink stream on a serial/UART port.

MAV_X_RATE

0 b/s

PX4 Default (half of theoretical max).

MAV_X_MODE

Gimbal or Normal

Sets the MAVlink message set.

MAV_X_FORWARD

Enable

Enables forwarding of MAVlink messages on the configured MAVlink stream.

SER_X_BAUD

460800 8N1

Baudrate for the configured serial port.

Ardupilot Settings

Parameter
Value
Description

SERIALX_BAUD

460800

Baudrate for configured serial port.

SERIALX_PROTOCOL

MAVlink 1 (OEM) MAVlink 2 (Gimballed)

MAVlink protocol for configured serial port.

SRX_EXTRA1

10

Rate for attitude messages (10Hz).

SRX_EXTRA3

2

Rate for UTC time messages (2Hz).

SRX_POSITION

4

Rate for GPS position messages (4Hz).

SRX_EXT_STAT

10

MAVLink Stream rate of SYS_STATUS, POWER_STATUS, MCU_STATUS, MEMINFO, CURRENT_WAYPOINT, GPS_RAW_INT, GPS_RTK (if available), GPS2_RAW_INT (if available), GPS2_RTK (if available), NAV_CONTROLLER_OUTPUT, FENCE_STATUS, and GLOBAL_TARGET_POS_INT

CAMX_TYPE

5

how to trigger the camera to take a picture

Recommended Flight Settings

6X Series Sensors Recommended Flight Settings

Flight Settings

Orthomosaic

Altitude (ft)
Speed (mph)
Overlap (%)

These settings should be used as a starting point. Adjustments should be made based on background, time of year, location, weather, and other factors.

These flight settings are based on the global shutter monochrome imagers performance. The RGB imager can capture at 5FPS but is subject to electronic rolling shutter (ERS) effect. If you are capturing data for RGB maps then using a conservative flight speed is recommended.


Mission Parameter Calculator

Check out our free web based mission parameter calculator to find your ideal flight settings:


Capture Performance

The maximum capture rate of the 6X Series Sensors is 5 FPS. The charts below show how the camera performs given different altitude, flight speed, and overlap settings.

Capture Rate Versus Altitude - Constant Speed

Capture Rate Versus Flight Speed - Constant Altitude


Environmental Considerations

Time of Day

Fly mid-day when the sun is highest in the sky (solar noon) to reduce shadowing effects. Solar noon will change depending on global location and time of year.

Cloud Cover

Flying with uniform lighting conditions is optimal for 6X. This means no clouds (clear), mostly clear, or completely overcast.

Optimal Lighting Conditions

Clear Skies

Overcast

Undesirable Lighting Conditions

Partially Cloudy

Precipitation

Flying in foggy, rainy, or snowy conditions is not advised.


Sentera Product Catalog

For more in-depth flight settings for 6X and 6X Thermal visit the Sentera Product catalog.

Freefly Compatibility Settings - Astro
Inspired Flight Compatibility Settings - IF800 & IF1200
Logo
Logo
Logo

50 to 150

5 to 15

70 to 85

150 to 400

15 to 45

70 to 85

IrfanView - Official Homepage - One of the Most Popular Viewers Worldwide
Logo
https://support.sentera.com/portal/en/kb/articles/contacting-support
AstroFreefly Store
Electrical InterfacesAstro Public
Drawings and CADAstro Public
How To Change Configuration | 6X Multispectral Sensor User Guide
Stand Alone Mode (Sentera GPS) | 6X Multispectral Sensor User Guide
Interface Varients | 6X Multispectral Sensor User Guide
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Logo

Home

6X Series Sensors Web Page UI Home

Introduction

The home page of the 6X webpage displays the sensor status, session control, trigger control, and calibration control menus. This is the default landing page when the webpage is accessed.


Status

The status field displays the telemetry information received from external sources like the aircraft autopilot or light sensor/GPS.

GPS Status

The GPS status displays the GPS information currently available to the 6X.

Item
Information

Attitude

The attitude status displays the current attitude of the 6X in the .

The attitude information source is dependent on the selected configuration. See the page for detailed information.

Item
Information

Session Control

Session Control displays if the 6X is ready to take imagery or not. If a session is started, the 6X is ready. If a session is not started automatically the 6X may not be ready. However, a session can be started manually if desired.

Session control is displayed in 2 states:

Session In Progress

The 6X has detected that it is ready to begin collecting imagery. The session start criteria is based on the configuration of the 6X.

Start Session

The 6X did not automatically start a session.

To start a session manually:

  1. Name the session in the text input box, or leave the default web_session name.

  2. Press the Start Session button.

  3. Verify the status lights on the 6X turn solid green.

Starting a session manually can be useful for ground testing.

Starting a session manually before a flight is not recommended as the 6X may not have the telemetry information necessary for successful data capture.


Trigger Control

The 6X can be manually triggered using the Capture Image button in the Trigger Control field. This is useful for ground testing, or when manual image capture is applicable.

Press the Capture Image button (a session must be started) and the 6X will take an image (1 image per imager). The status LEDs on the 6X will briefly flash from green to white.


Calibration Control

The Calibration Control field is used for capturing calibration images with a . The manual Capture Calibration button only needs to be used when:

  • No Light Sensor/GPS is being used.

  • The Light Sensor/GPS does not have the .

Learn how to properly capture calibration images here:

Image Adjustment

6X Series Sensors Image Adjustment Settings

Introduction

6X image settings are set by default for the best settings in most use cases. There is also the ability to alter some of the color and exposure settings for custom applications.

Changing these values is not necessary for most applications and may prevent standard analytics from being run.


Exposure

In most normal usage, the exposure should not need to be adjusted, however if your images are consistently too bright or too dark, the autoexposure settings can be modified. These settings will change how bright / dark the image is, as well as the shutter speeds and gains used to capture the image.

Range

0 - 255

Recommended Value

60 (rgb), 75 (mono)

Description

Sets the average pixel value across the entire frame that the autoexposure attempts to achieve. It is the highest 8 bits of any imager, and is calculated before any ISP corrections are performed. This means that the final image will likely have an average brightness much higher than this target due to vignetting and gamma correction being applied in later steps. Due to this, in general the target value should be kept lower than 100.

Range

200 – {Shutter Max}

Recommended Value

400

Description

This value is the shortest shutter speed in us (microseconds) that will be used before the camera drops to a lower ISO. If the camera is already running at the lowest ISO, then the shutter speed will go faster until it hits the limit of the sensor.

Range

{Shutter Min} – 25000

Recommended Value

2000

Description

This value is the longest shutter speed in us (microseconds) the camera will use before increasing the ISO to attempt to stay below this value. For most flights, you should not see a longer shutter speed unless the field has insufficient lighting, forcing the shutter to go longer (see Shutter Unlock). It is recommended to keep this value lower than 3ms (3000us) to avoid motion blur caused by the groundspeed of the UAV.

Range

100 – 12800 (rgb)

100 – 25118 (mono)

Recommended Value

1600 (rgb)

1594 (mono)

Description

If the ISO gets set to this value or greater by the autoexposure, then the shutter max value is ignored, allowing the shutter speed to go slower. This is to prevent the camera from using very high gains, which can have worse effects on image quality than the motion blur from a slow shutter speed . It is also useful for taking images indoors, where lighting is insufficient to capture images otherwise.


RGB Color Adjustments

These settings allow adjustment to the overall brightness, contrast, and saturation of the image without modifying the exposure. They should be used for fine color adjustment if the default settings are not giving the quality of image needed for your application.

Range

-255.0 – 255.0

Recommended Value

-15.0

Description

Sets how bright/dark the overall image is. This value is added or subtracted from each pixel. Higher values result in the image looking more washed out, and lower values make it darker.

Range

0.0 – 2.0

Recommended Value

1.0

Description

Adjusts the difference between the light and dark values. This effectively multiplies every value by X. So setting this to 1.1 will take 1.1x each pixel value. For example, if you have a value of 20 and 200 (180 apart) normally, setting contrast to 1.1 will change the values to 22 and 220 (198 apart) effectively increasing the contrast between bright and dark.

Range

0.0 – 2.0

Recommended Value

1.0

Description

Adjusts the vibrancy of the color in the image. This will affect the color and changing this by too much can result in imagery with less ‘true’ color. This increases the ‘contrast’ of each color. For example, if something is bright green, increasing saturation adjusts it to be even more green than a darker green in the same image.


Pipeline

There are several onboard processing steps that the sensor performs to provide the best data product possible. While we recommend leaving these at their default settings, each of the processing stages can be disabled to get completely unmodified imagery from the sensor.

Recommend

Enabled

Description

This enables use of the internal color correction matrix on the sensor. The purpose is to compensate for the exact response of the sensor and produce an image with correct color and white balance. Disabling this is not recommended, as the resulting images will appear ‘greenish’ due to the sensitivity profile of the imager.

Recommend

Enabled

Description

Enables the use of gamma correction on imagery. Most software expects jpg data to have gamma correction applied, so disabling this is not recommended as the images may appear too dark for most processing.

Recommend

Enabled

Description

Enables an image sharpening algorithm to be executed on the imagery. This is done to provide “crisper” imagery with better visual separation of subject matter.

Recommend

RGB: Enabled

Monochrome: Enabled

Description

Enables onboard correction for lens vignetting effects. This is done by applying a higher gain to the corners and edges of the image where fall off effects due to the lens occur.

Recommended

Enabled

Description

Enables the onboard alignment of the monochrome imagers. This allows images flown at appropriate altitude to come off the sensor already aligned and ready for processing. This process does crop the image size by a small amount as well as translate and rotate the associated images resulting in some interpolation. If this is a concern, it can be disabled, but alignment will have to be done in other software.


Calibration Imagery Post Processing

6X Multispectral Calibration Imagery Post Processing

Introduction

When using a reflectance panel with the 6X sensor, raw images should first be run through the Sentera 6X Calibration script.

Follow the detailed usage instructions found in the README file.


Downloads


Installation Instructions

Download miniconda for python 3.7

Choose the correct option for your computer.

Open Anaconda Prompt (miniconda 3)

Clone py-radiometric-corrections.

Navigate to py-radiometric-corrections/

Run The Following Commands

This creates an imgcorrect-venv environment that all scripts should be run in and installs the analyticstest library for the scripts to reference. If no errors appear, the imgcorrect library should be installed correctly.

you may need to add --user at the end of the install command.

Installation Complete


Usage

The imagery correction in this repository can be used via:

  • Importing the various library functions defined in the package.

  • Running the pre-defined scripts with a Python installation of version 3.6 or above.

  • Running the standalone executable on the command line.

Arguments

input_path

Path to image files taken from supported sensors. Choose the session folder of your images. This will cause the script to correct the images in each subfolders for all 5 multispectral band and ignore the rgb folder.

--calibration_id "CALIBRATION_ID", -c CALIBRATION_ID

Identifier in the name of the image that denotes it is from the calibration set. If not specified, defaults to "CAL".

--output_path OUTPUT_PATH, -o OUTPUT_PATH

Path to output folder at which the corrected images will be stored. If not supplied, corrected images will be placed into the input directory.

--no_ils_correct, -i

If selected, Incident Light Sensor correction will not be applied to the images.

--no_reflectance_correct, -r

If selected, reflectance correction will not be applied to the images.

--delete_original, -d

Overwrite original 12-bit images with the corrected versions. If selected, corrected images are renamed to their original names. If not, an extension is added.

--exiftool_path EXIFTOOL_PATH, -e EXIFTOOL_PATH

Path to ExifTool executable. ExifTool is required for the conversion; if not passed, the script will use a bundled ExifTool executable.

--uint16_output, -u

If selected, scale of output values will be adjusted to 0-65535 and dtype will be changed to uint16.

Arugment Usage

The correction is done in 3 steps:

  1. Autoexposure correction.

  2. Incident Light Sensor correction.

  3. Reflectance correction.

Autoexposure Correction

Sensors simulate longer exposures and wider apertures for subjects with lower upwelling radiance. These scripts correct by dividing pixel values by EXIF ISOSpeedRatings * EXIF ExposureTime

Incident Light Sensor (ILS) Correction

Downwelling radiance may change over the course of a flight as clouds pass overhead. These scripts correct by dividing pixel values by a rolling average of Incident Light Sensor readings (Camera:SunSensor) on images taken within 3 seconds of the corrected image. Correcting for ILS will standardize the DN (digital number) of your images based on the differences in incident light.

Reflectance Correction

Sensors measure upwelling radiance, not reflectance. Radiance is dependent on unpredictable environmental conditions, and without a reference point with known reflectance, it is impossible to calculate. By beginning a flight with a photo of a panel with known reflectance, that panel's upwelling radiance can be used to standardize measurements.

These scripts correct by multiplying pixel values by slope coefficient (calculated based on known calibration panel reflectance values).


How To Use

Open Anaconda Prompt and navigate to py-radiometric-corrections/.

Activate Environment

Get Required Arguments

Run Corrections

Use local data folders when running the proceesing scripts.


Latitude

latitude location in decimal degrees.

Longitude

Longitude location in decimal degrees.

Alt

Current altitude in meters (AMSL)

GPS Time

The Coordinated Universal Time as received from the satellites.

Fix Type

The type of GPS fix that has been acquired. Unknown - Unknown fix type.

None - No fix achieved.

2D - 2 dimensional position.

3D - 3 dimensional position. DGPS - DGPS/SBAS aided 3D position. RTK Float - RTK with float ambiguities.

RTK Fixed - RTK with fixed ambiguities.

Sats

The number of satellites that are detected by the GPS source.

Horz Acc

The horizontal accuracy of the GPS fix in meters.

Vert Acc

The vertical accuracy of the GPS fix in meters.

DOP

The dilution of precision of the GPS accuracy.

Roll

The roll angle of the sensor in degrees.

Pitch

The pitch angle of the sensor in degrees.

Yaw

The yaw angle of the sensor in degrees.

earth reference frame
configuration
reflectance panel
push button feature
How To Use
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git clone https://github.com/SenteraLLC/py-radiometric-corrections.git
cd py-radiometric-corrections/
conda env create -f environment.yml
conda activate imgcorrect-venv
pip install .
correct_images.py [-h] [--calibration_id CALIBRATION_ID] [--output_path OUTPUT_PATH] [--no_ils_correct] [-no_reflectance_correct] [--delete_original] [--exiftool_path EXIFTOOL_PATH] [--uint16_output] [--version] input_path 
cd py-radiometric-corrections/ 
 conda activate imgcorrect-venv 
 python scripts\correct_images.py -h  
 python scripts\correct_images.py "input_path" --output_path "output_path" 

RGB

Monochrome

RGB

Monochrome

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Accessories

6X Series Sensors What's In The Box Accessories

Light Sensor / GPS

Select the tab with your aircraft for kit contents.

SKU: 21222-06

SKU: 21222-07

SKU: 21222-02

SKU: 21222-03

SKU: 21222-01


Reflectance Panel

Purchase Link


Configuration

6X Series Sensors Configuration

Introduction

The configuration page is used to change:

  • How the 6X interacts with the aircraft it is connected to.

  • The triggering method

In most cases the 6X is preconfigured based on what aircraft/system the camera is ordered for and the configuration doesn't need to be changed.

To learn how to change the configuration of the 6X or change the overlap for auto-height overlap mode, see the pages linked below.


How To Instructions


Platform/Metadata Configuration

The platform and metadata configuration is used to tell the 6X what aircraft it will be used with and where data sources (altitude, GPS, heading, etc) will come from.

Config File

The Config File field will display the currently config file. It also contains the change button used for changing the config file.

Depending on the current config file there will be limited config files displayed in the change menu. To display all configuration file options select the "All platform configurations" and/or the "Advanced configurations" radio buttons as shown in the advanced tab below.

Config Type

The Config Type is tied to the config file and gives more specific instruction about the metadata sources. The config names and data source information are listed below.

Name
GPS Source
Attitude Source
Trigger Source
Platform Complatibility

DJI Skyport

DJI Autopilot

DJI Autopilot

DJI Autopilot

M300 M350 M200 M210

Sentera GPS

Sentera External GPS

65R Sensor Internal IMU

65R Sensor

M300 M350 M200 M210

Astro IF800 IF1200 Custom

Name
GPS Source
Attitude Source
Trigger Source
Platform Complatibility

Freefly Astro Gimbal

Astro Autopilot

Astro Autopilot

Astro Autopilot

Astro

Name
GPS Source
Attitude Source
Trigger Source
Platform Complatibility

IF800

IF800 Autopilot

IF800 Autopilot

IF800 Autopilot

IF800

IF1200A

IF200 Autopilot

IF200 Autopilot

IF200 Autopilot

IF1200

Name
GPS Source
Attitude Source
Trigger Source
Platform Complatibility

MAVLink-V2

MAVlink Autopilot

MAVlink Autopilot

MAVlink Autopilot

Custom MAVlink Autopilot Systems

Name
GPS Source
Attitude Source
Trigger Source
Platform Complatibility

DJI M300 DGR

Sentera DGR Sensor Package

Sentera DGR Sensor Package

Sentera DGR Sensor Package

M300 M350

DJI M600 DGR

Sentera DGR Sensor Package

Sentera DGR Sensor Package

Sentera DGR Sensor Package

M600

Name
GPS Source
Attitude Source
Trigger Source
Platforms

DJI M600 OSDK

DJI A3 Autopilot

DJI A3 Autopilot

DJI A3 Autopilot

M600

MAVlink

MAVlink V1

MAVlink V1

MAVlink V1

Most MAVlink enabled platforms with configurable serial port.

Sentera GPS

Sentera GPS

6X Sensor Internal IMU

6X Sensor

Custom

Configurations with 6X Sensor Internal IMU as an Attitude source does not contain yaw/heading information and must be flown east facing.


Trigger

The trigger field is used to set the trigger type and related settings.

Trigger Type

The Command trigger type is used when the trigger commands come directly from the aircraft autopilot.

No settings are provided for this mode. The sensor will only trigger if it receives a trigger command from MAVLink, the web page, Payload SDK, or the custom Sentera Protocol.

The External trigger type is used when an external source is used to trigger the 6X.

There are 4 options for the external trigger commands. See the details in the table below.

Rising/Falling Edge

Low/High PWM

Mode
Description

Rising Edge

The trigger input must be stable for 50 milliseconds to register as a commanded trigger. This is also known as the mechanical switch debounce period.

Falling Edge

The trigger input must be stable for 50 milliseconds to register as a commanded trigger. This is also known as the mechanical switch debounce period.

Low PWM

The lower value of the PWM TRIGGER input in milliseconds.

High PWM

The higher value of the PWM TRIGGER input in milliseconds.

The trigger input is the TRIGGER signal on connector J2.

For all modes, the TRIGGER input must be actively driven using 3.3V logic levels.

The Interval trigger type is used to capture images at a specified time interval rather than distance travelled. The minimum capture interval is 0.200 seconds (5Hz).

The sensor will start triggering the moment a session starts, so this may result in images taken on the ground as well as in the air.

The Overlap trigger type is used when the the 6X is being powered by an aircraft, not receiving triggers from the aircraft or an external device, and classical overlap settings are used. This is useful for many applications as it removes the need for in depth integration with the aircraft. The 6X in combination with the Light Sensor/GPS will operate without direct communication with the aircraft.

Once 6X detects it is more than the minimum altitude above the takeoff point, it begins to capture images and continues to do so to achieve the correct image overlap. Triggering stops when it detects the platform has departed from the minimum altitude.

The 6X works with any ground station or flight controller in this mode, as it makes calculations about altitude using the GPS receiver’s measured altitude at takeoff.

This is the standard setting for systems without MAVLink or DJI Skyport.

There are 2 overlap modes:

Auto Height (most common)

The 6X detects the flight altitude (AGL) based on the detected GPS altitude between where the session starts (on the ground) and where the aircraft flies at (survey altitude).

Fixed Height

The 6X assumes the survey altitude of the aircraft matches the fixed height input in the altitude box.

Item
Description

Overlap

Changes the frequency of the trigger based on the overlap of the image. Fifty percent overlap means that when the sensor has moved such that 50% of the image is new, an image will be triggered. Use the slider to adjust the overlap percentage in the text box. There are markers present in the slider at settings for typical use cases.

Altitude Type

Selects whether a fixed altitude is used for calculating overlap, or automatic altitude determined from GPS.

Atlitide

Selects whether a fixed altitude is used for calculating overlap, or automatic altitude determined from GPS.

Min AGL

To prevent triggers from occurring while walking around on the ground, a minimum altitude can be set. Any triggers that occur due to the sensor moving around will be blocked if the sensor estimates that its altitude is less than this number.

Min Distance

If the sensor is flying very low to the ground, the overlap setting may result in very rapid triggers. To prevent a flood of images, a minimum trigger distance can be set. This distance is the minimum distance the sensor must travel before the next trigger can be sent.

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How To Change Overlap Settings
How To Change Configuration
I/O
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Light Sensor/GPS

ILS/GPS Mounting Tray

ILS/GPS Mount

1.5ft USB-C to USB-C Cable.

Cable Clip

Alcohol Wipes

M3 x 5mm Screw (QTY 4)

Light Sensor/GPS

ILS/GPS Mounting Tray

ILS/GPS Mount

1ft 90 degree USB-C to USB-C Cable.

Alcohol Wipes

M3 x 8mm Screw (QTY 2)

Cable Clip

Light Sensor/GPS

ILS/GPS Mounting Tray

1ft 90 Degree USB-C to USB-C Cable

Alcohol Wipes

Cable Clip

Light Sensor/GPS

ILS/GPS Mounting Tray

ILS/GPS Mount

1ft 90 Degree USB-C to USB-C Cable

Alcohol Wipes

Right Angle USB-C Adapter

Cable Tie

Cable Tie Mount

Light Sensor/GPS

ILS/GPS Mounting Tray

ILS/GPS Mount

1ft 90 Degree USB-C to USB-C Cable

Alcohol Wipes

Right Angle USB-C Adapter

Cable Tie

Hex key, 2.5mm

Light Sensor/GPS

ILS/GPS Mount

3ft USB-C to USB-C Cable.

Cable Clip (QTY2)

Alcohol Wipes

M3 x 10mm Screw (QTY 2)

Light Sensor/GPS

ILS/GPS Mounting Tray

ILS/GPS Mount

1.5ft USB-C to USB-C Cable.

Cable Clip

Alcohol Wipes

M3 x 5mm Screw (QTY 4)

Light Sensor/GPS

ILS/GPS Mounting Tray

3ft USB-C to USB-C Cable.

Alcohol Wipes

Cable Tie

I/O

6X Series Sensors Integration - I/O Information

Power In & Expansion Port

J1 - Power In

Pin
Signal
Type
Description

J2 - Expansion Port

Pin
Signal
Type
Description

Ethernet & Power I/O

J3 - Power I/O

Pin
Signal
Type
Description

J4 - Ethernet

Pin
Signal - 100BASE-T
Signal - 1000BASE-T
Description

USB-C & Micro SD Card

J5 - USB-C

Used for data transfer to/from sensor.

J6 - Micro SD Card

User for recording diagnostic log file data.

1

VCC

PWR

10.5 - 26V Input 1A @ 12V Typical

2

VCC

PWR

10.5 - 26V Input 1A @ 12V Typical

3

GND

PWR

N/A

4

GND

PWR

N/A

1

UART2_TX

O

3.3V UART OUTPUT - Primary UART

2

UART2_RX

I

3.3V UART INPUT - Primary UART

3

UART3_TX

O

3.3V UART OUTPUT - Secondary UART

4

UART3_RX

I

3.3V UART INPUT - Secondary UART

5

PPS

I

3.3V Pulse Per Second Input - RTK

6

EVENT_OUT

O

3.3V Event Output - RTK

7

TRIGGER

I

3.3V Trigger

8

RSVD1

I/O

Reserved for future use

9

+5V0

PWR

+5V0 @ 500mA

10

+3V3

PWR

+3V3 @ 500mA

11

GND

PWR

N/A

12

GND

PWR

N/A

1

VCC

PWR

10.5 - 26V Input 1A @ 12V Typical

2

VCC

PWR

10.5 - 26V Input 1A @ 12V Typical

3

GND

PWR

N/A

4

GND

PWR

N/A

5

SDA

I/O

I2^22C - Motor Controller IMU

6

SDL

I/O

I2^22C - Motor Controller IMU

1

TX+

BI_DA+

GRN/WHT

2

TX-

BI_DA-

GRN

3

RX+

BI_DB+

ORG/WHT

4

RX-

BI_DB-

ORG

5

N/A

BI_DC+

BLU/WHT

6

N/A

BI_DC-

BLU

7

N/A

BI_DD+

BRN/WHT

8

N/A

BI_DD-

BRN

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Sentera Mission Calculator
Products - Sentera Catalog

Latest Version

6X Series Sensors Firmware Update Latest Firmware Version

Version 3.13.1

Release Notes

3.13.1

Features

  • Add gimbal control for Inspired Flight IF800/IF1200A

Bug Fixes

  • Fix disabling of Color Correction Matrix (CCM)

  • Fix TIFFTAG type of XMP data for monochrome images

Previous Releases

3.11.1

Features

  • Add 6X Thermal Pro support

Bug Fixes

  • Fix repeated image captures with MAVLink-v2 operation

  • Fix alignment in monochrome imagery at short range

3.9.2

Features

  • Add Gremsy Hyper Quick camera configuration

Bug Fixes

  • Fixed an issue that could cause 6X mono bands to become unaligned after updating

3.9.1

Features

  • Log connection speed of USB and Ethernet connections

  • Improved USB connectivity robustness

  • Improved application logging

Bug Fixes

  • N/A

3.8.1

Features

  • Remove leftover fsck *.rec files on startup

  • Update wording about potential dataloss when updating firmware

  • Add autobaud support for gimballed MAVLink systems

Bug Fixes

  • N/A

3.80

Features

  • Added support for SBG Quanta DGR

  • Added support for Inspired Flight IF800/IF1200A

  • Improved error messages on web page when storage is full

  • Improved metadata location/attitude accuracy for Skyport V2 systems

  • Improved metadata location/attitude accuracy on supported Mavlink2 RTK systems

  • Improved USB connectivity and performance

Bug Fixes

  • Fixed calibration images not showing calibration running on web page

  • Fixed updating the camera exposure parameters causing a camera error condition

3.7.0

Features

  • Added support for DJI Skyport V2 hardware.

  • Added support for Freefly Astro.

  • Significantly reduced session startup time.

Bug Fixes

  • Firmware updates will now delete all images on camera when applied to prevent image corruption issues.

  • Fixed improper encoding for exif tag GPSProcessingMethod.

  • Fixed rare issue causing invalid exif tag GPSHPositioningError.

  • Fixed an issue that could prevent the user from updating the advanced camera settings.

  • Increased allowed maximum RGB JPG size to prevent images from being clipped (DJI RTK).

  • Improved switching algorithm and accuracy when using DJI RTK enabled systems (DGR).

  • Fixed gimbal not found error reporting on M300 DGR system (DGR).

  • Improved the accuracy of RGB image metadata synchronization.

3.6.3

Features

  • Increased RGB vignetting correction bit depth from 8 to 12-bits.

Bug Fixes

  • Fix subtle ring artifact in RGB imagery.

3.6.1

Features

  • Improved color and behavior of saturated pixels in images.

  • Improved vignetting correction settings.

  • Allow settable baud rates on all UARTS for OEM integrators.

  • Add ExifImageHeight and ExifImageWidth tags to jpegs to allow easier reading of image size.

  • Update branding on configuration webpages.

  • Inhibit DJI Skyport image triggers for non-command modes (e.g., overlap mode) to prevent double triggering during flight.

  • Add support for new gimbal hardware revision.

Bug Fixes

  • Fix an issue preventing photo counts from updating in DJI Pilot.

  • Fix a rare image corruption issue causing bad captures and missing exif data.

  • Fix occasional missing EOF marker on RGB JPEGs.

3.5.2

Features

  • Improved RGB image quality.

  • Added new Image Adjustment configuration web page * Allows adjustment of contrast, brightness, and saturation * Allows changing of some autoexposure parameters.

  • Added Known Height Overlap mode * Allows low altitude flights at known AGLs to trigger properly * Must be configured from the web page prior to flight.

  • Added support for RTK position data on DJI drones.

  • Added support for new hardware revisions with UHS SD card interfaces.

  • Added trigger input debouncing for external push button input.

  • Improved laser rangefinder accuracy (DGR).

Bug Fixes

  • Fixed a rare issue causing image capture faults and skipped photos.

  • Fixed a rare issue causing thermal image corruption (21216).

  • Fixed CRC errors after camera session start (DGR).

  • Remove RGB BandSensitivity tag if color correction is enabled.

3.2.1

Features

  • Add Samba signed communication support.

  • Add support for ILS/GPS module push-button and buzzer.

  • Add support for new gimbal hardware revision 22114/23114.

  • Add AGL source to imagery XMP tag.

  • Add PSDK/HGNSI hybrid configuration mode for DGR systems.

  • Improved logging output.

Bug Fixes

  • Fix 256 bytes of corrupt image data at start of RGB JPEG files.

  • Fix web bridge failure when reformatting NVMe drive.

2.1.0

Features

  • Added built-in test for mono imagers on startup.

  • Updated XMP tags for improved Pix4D support.

  • Removed option for multipage TIFFs from webpage.

Bug Fixes

  • Fixed incorrect reporting of remaining camera storage.

  • Fixed thermal image synchronization issue (21216).

2.0.1

Features

  • Improved application logging.

Bug Fixes

  • Fixed display of webpage application error.

2.0.0

Features

  • Initial 6X Thermal firmware release (21216).

  • Improved vignetting correction for RGB images.

Bug Fixes

  • N/A

1.8.1

Features

  • N/A.

Bug Fixes

  • Updated webpage error message when gimbal comms not present.

1.8.0

Features

  • Improve RGB image quality.

  • Add improved color calibration.

  • Add gamma correction to images.

  • Add saturation detection to color correction.

  • Add sharpening to images.

  • Add vignetting correction.

  • Adjusted autoexposure values to minimize saturation in RGB imagery.

  • Add XMP tags to indicate when new RGB processing steps are enabled.

  • Increased pulse width of image capture output signal to 100ms.

Bug Fixes

  • N/A.

1.7.0

Features

  • Webpage configuration of external image trigger (TRIGGER pin).

  • DJI Onboard-SDK (OSDK) metadata performance improvements.

Bug Fixes

  • N/A.

1.6.1

Features

  • Real-time switching of GPS/RTK data for DJI Onboard-SDK (OSDK).

Bug Fixes

  • Fix for intermittently dropped serial data bytes.

1.6.0

Features

  • Support for DJI Onboard-SDK (OSDK) serial input as data source.

  • Support for Honeywell (HGNSI) serial input as data source.

  • Improved diagnostic data logging.

Bug Fixes

  • N/A.

1.5.0

Features

  • Skyport support added for M200/M300 series of DJI drones.

  • Allow updating metadata source from webpage.

  • Set default jpg quality to 90% (was 75%).

Bug Fixes

  • Update direct USB to support MacOS/Linux systems.

1.4.0

Features

  • Add support for direct USB connection to camera w/ camera acting as USB->Ethernet

Bug Fixes

  • Fix issue of exposure sweep (i.e. reflectance panel calibration process) not capturing all imagery.

1.3.3

Features

  • N/A.

Bug Fixes

  • Fixed issue that could cause jpg files to revert to their largest size (8MB).

  • Pix4D should recognize all 6x cameras as rigs.

1.3.2

Features

  • Added performance log to monitor camera temperatures after flights.

Bug Fixes

  • Fixed occasional truncated jpg images when flying over fields with very fine detail.

  • Fixed issue that could corrupt drive contents when no space was left on the camera.

1.3.1

Features

  • Added calibration entries for principal point, focal length, and lens warp (when available).

  • Display DOP and satellite count for Mavlink systems.

Bug Fixes

  • Fix for users reporting black bands in their aligned images.

  • Synchronization improvement to avoid out of sync imagers (vertical lines).

  • Fix for coordinate frame rotations in DGR systems.

  • Adjusted Autoexposure for RGB camera to reduce over/underexposed images.

  • Improve stability at high capture rates.

1.2.0

Features

  • Added support for calibration image sweeps.

  • Users can now select trigger type from the webpage.

  • Active config files are automatically updated with each release.

  • Added support for Septentrio direct georeferencing.

  • Allows for configurable attitude offset.

Bug Fixes

  • N/A.

1.1.0

Features

  • Added support for selecting single/multipage tiffs.

  • Added ability to enable/disable imager settings from main webpage.

  • Improved setting overlap from web page.

  • Improved support for tags in Pix4D.

Bug Fixes

  • Fixed jpg sizes sometimes being incorrect when transferring from the camera.

  • Fixed crash that could occur on startup due to imager synchronization.

  • Improved error messages if an imager is not detected by the hardware.

  • Fixed type of some XMP tags used by Pix4D for importing.

1.0.14

Features

  • Initial Customer Release.

Bug Fixes

  • N/A.

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Miniconda — miniconda documentation
GitHub - SenteraLLC/py-radiometric-corrections: Library to perform various corrections on supported sensors.GitHub

Sentera Calibrated Reflectance PanelSentera
6X Standard Firmware Download
6X Thermal & Thermal Pro Firmware Download
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