<table border="0" cellpadding="6" cellspacing="0" hspace="4">
<tbody><tr>
<td bgcolor="#eeeeee" colspan="2">
<table width="100%">
<tbody><tr>
<td><b>SetProjection(BatchMode)</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">This application sets the projection in  batch mode for Mapinfo Tables</td>
</tr>
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<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
<tbody><tr>
<td align="right" valign="top"><b>File Name</b></td> <td>SetJiusd.zip (49KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Amzad Ali Khan</td>
</tr>
<tr>
<td align="right" valign="top"><b>Created</b></td> <td>Apr 5, 2004, 1:00:52 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Modified</b></td> <td>Apr 5, 2004, 1:00:52 AM</td>
</tr>
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<td align="right" valign="top"><b>Version</b></td> <td>1.0</td>
</tr>
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<td align="right" valign="top"><b>Supporting GIS</b></td> <td>MapInfo Professional</td>
</tr>
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<td align="right" valign="top"><b>OS Support</b></td> <td>Windows</td>
</tr>
</tbody></table>
</td>
</tr>
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<td colspan="2" valign="top"><hr size="1"></td>
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<td colspan="2" valign="top">
</td></tr></tbody></table>-->

 Geospatial Files and Tools

GIS File Library SetJiusd.zip

Utility bundle of batch file utilities for import, export and coordinate system conversion. BatchMIF imports multiple mif/mid files into MapInfo tables. MIFexp exports multiple MapInfo tables into mif/mid files. BatchProj converts multiple MapInfo tables to new coordinate systems. DXFexp exports multiple MapInfo tables to DXF format (default values).

GIS File Library batchtools-25

Save your thematic layers as default map objects in your MapInfo Table

File Name	HardCode Thematics.zip (16.01 KB)

This app was created a few years ago to assist some of the forum members here. Has now since been 99.97% tested. =)

This app will permanently APPLY the thematic styles to the map objects and thus the result will be treated as a normal layer, not a thematic layer by MapInfo Professional

This program will allow you to save your thematicised settings as the default map object styles in a MapInfo table. You are given the option to create a new table, or to use and overwrite the existing one.

Thematic Layers: thematic layer to extract

Note: As demonstrated at the MapInfo Australia's 2005 Christmas User Forums

GIS File Library HardCode Thematics.zip

Command line tool to convert SRTM-3 .hgt files to ASCII x,y,z.

Supporting GIS	Independent / Not Applicable

Converts SRTM-3 .hgt files to ASCII x,y,z (long,lat,height).

Requires the .net framework (freely available from Microsoft) in order to run.

Output is to standard output, unless redirected to a file, which allows multiple files to be concatenated together.

This program is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.

GIS File Library page inner hgt2xyz.exe

Appends similarly structured MI tables. Works either interactively or in bat ...

Appends similarly structured MI tables. Works either interactively or in batch mode. There is no limit to the number of files one can combine.

GIS File Library page append2-109.zip

CodeTopo CodeTopo is a software that allows to automatically draw maps from list of...

TatukGIS Coordinate Conversion Calculator This free application interactively converts the coordinates of a point...

TatukGIS Free Viewer Widely appreciated as the world’s best free desktop GIS Viewer, this...

DateWidget 0.25 Utilities for transforming dates within Maptitude GIS. GPLv3 license....

Cluster Contiguous 0.2 This macro will identify contiguous sets of polygons. It marks each...

Copy Annotation 0.3 This add-in allows a user to copy annotations (freehand text; freehand...

Area and Perimeter 0.3 This zipfile contains a pair of add-ins that allow the user to find the...

Point Coordinates 0.3 As the user clicks on points on a map, this toolbox copies each point's...

Azimuth 0.3 Finds the azimuth and length of a freehand line on a Maptitude map or...

Xtract This tool will extract a grid value to a overlying point. The user can either...

5.	Source code for converting TAB to SHP	8308

Geospatial Files and Tools search DM

Geospatial Files and Tools DM

<table border="0" cellpadding="6" cellspacing="0" hspace="4">
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<td><b>Qik_AvlWriterV1.zip</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">Example tool of how to write avl files from Mapinfo base tables</td>
</tr>
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<td colspan="2" valign="top"><hr size="1"></td>
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<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
<tbody><tr>
<td align="right" valign="top"><b>File Name</b></td> <td>Qik_AvlWriterV1.zip (13.64 KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Russell Lawley</td>
</tr>
<tr>
<td align="right" valign="top"><b>Created</b></td> <td>Oct 17, 2006, 4:29:59 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Modified</b></td> <td>Oct 17, 2006, 4:29:59 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Version</b></td> <td>6.5</td>
</tr>
<tr>
<td align="right" valign="top"><b>Supporting GIS</b></td> <td>MapInfo Professional</td>
</tr>
<tr>
<td align="right" valign="top"><b>OS Support</b></td> <td>OS Independent</td>
</tr>
</tbody></table>
</td>
</tr>
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<td colspan="2" valign="top"><hr size="1"></td>
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</td></tr></tbody></table>-->
    			A small tool that demonstrates how it is possible to write an AVL file (for use in ESRI's ArcXXXX products). The tool converts foreground colour info from Mapinfo regions, into thematic settings within the avl. Has limited finctionality but could be expanded, contact the author for the source code.

GIS File Library Qik_AvlWriterV1.zip

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<td><b>Resolve Workspace Tables</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">Allows the user to open a workspace regardless of missing tables</td>
</tr>
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<td colspan="2" valign="top"><hr size="1"></td>
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<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
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<td align="right" valign="top"><b>File Name</b></td> <td>RWTv0.92 (SMUT).Zip (361.33 KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Stephen Chan</td>
</tr>
<tr>
<td align="right" valign="top"><b>Created</b></td> <td>Nov 28, 2004, 4:13:29 PM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Modified</b></td> <td>Nov 28, 2004, 4:13:29 PM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Version</b></td> <td>v0.92</td>
</tr>
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<td align="right" valign="top"><b>Supporting GIS</b></td> <td>MapInfo Professional</td>
</tr>
<tr>
<td align="right" valign="top"><b>OS Support</b></td> <td>Windows</td>
</tr>
</tbody></table>
</td>
</tr>
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<td colspan="2" valign="top"><hr size="1"></td>
</tr>
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<td colspan="2" valign="top">
</td></tr></tbody></table>

-->
    			Resolve Workspace Tables from Steve's Mapinfo User's Toolbox (RWT-SMUT).

This app will process a workspace file where tables are missing and generate a new workspace file which opens.

This app is useful if your table files no longer exists as it removes all references to it in the workspace file.

This app is also useful if the location of your tables have moved as there is a directory search facility that will replace the entry of your tables with the new location. (Note search directories must be set.)

Perform Search: Uses search directories set.

Use 1st Option: Automatically uses first table found in search.

Use Only Option: Automatically uses onlt table found in search

I hope you all find it useful.  I have currently extended the app so it does batch jobs. Works well although there is some part of the code I need to look at at the moment.

GIS File Library RWTv0.92 (SMUT).Zip

<table border="0" cellpadding="6" cellspacing="0" hspace="4">
<tbody><tr>
<td bgcolor="#eeeeee" colspan="2">
<table width="100%">
<tbody><tr>
<td><b>SetProjection(BatchMode)</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">This application sets the projection in  batch mode for Mapinfo Tables</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
</tr>
<tr>
<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
<tbody><tr>
<td align="right" valign="top"><b>File Name</b></td> <td>SetProjection.exe (44 KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Amzad Ali Khan</td>
</tr>
<tr>
<td align="right" valign="top"><b>Created</b></td> <td>Apr 5, 2004, 1:00:52 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Modified</b></td> <td>Apr 5, 2004, 1:00:52 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Version</b></td> <td>1.0</td>
</tr>
<tr>
<td align="right" valign="top"><b>Supporting GIS</b></td> <td>MapInfo Professional</td>
</tr>
<tr>
<td align="right" valign="top"><b>OS Support</b></td> <td>Windows</td>
</tr>
</tbody></table>
</td>
</tr>
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<td colspan="2" valign="top"><hr size="1"></td>
</tr>
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<td colspan="2" valign="top">
</td></tr></tbody></table>-->
    			This Application sets the projection system in batch mode for the mapinfo tables. This application provides the user to chose the projection to apply for all the files. Files can be selected by the application. Finally saves the new projected files to the user selected folder.

GIS File Library SetProjection.exe

<table border="0" cellpadding="6" cellspacing="0" hspace="4">
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<tbody><tr>
<td><b>Rotate text</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">Rotates text objects</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
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<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
<tbody><tr>
<td align="right" valign="top"><b>File Name</b></td> <td>txt_rotate.MBX (2.15 KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Jaromir Svasta</td></tr></tbody></table></td></tr></tbody></table>

Windows -->  			TXT_rotate is a MapBasic utility that rotates selected text objects a specified angle clockwise or counter clockwise. After running the utility, it adds a button to the "Tools" toolbar, which opens a dialog where user specifies how to rotate the text objects. Requires MapInfo 4.0 or higher.

GIS File Library txt_rotate.MBX

<table border="0" cellpadding="6" cellspacing="0" hspace="4">
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<table width="100%">
<tbody><tr>
<td><b>sort_tab-77.zip</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">Sort table by a column.  Includes source code.</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
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<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
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<td align="right" valign="top"><b>File Name</b></td> <td>sort_tab-77.zip (3.45 KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Ahmet Dabanli</td>
</tr>
<tr>
<td align="right" valign="top"><b>Created</b></td> <td>Feb 20, 1999, 12:00:00 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Modified</b></td> <td>Feb 20, 1999, 12:00:00 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Supporting GIS</b></td> <td>MapInfo Professional</td>
</tr>
<tr>
<td align="right" valign="top"><b>OS Support</b></td> <td></td>
</tr>
</tbody></table>
</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
</tr>

<tr>
<td colspan="2">&nbsp;</td>
</tr>

</tbody></table>

GIS File Library sort_tab-77.zip

<table border="0" cellpadding="6" cellspacing="0" hspace="4">
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<td bgcolor="#eeeeee" colspan="2">
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<tbody><tr>
<td><b>distmark-51.zip</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">Designed to place points along a line at a predefined distance. The start li ...</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
</tr>
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<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
<tbody><tr>
<td align="right" valign="top"><b>File Name</b></td> <td>distmark-51.zip (11.96 KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Meridian GIS</td>
</tr>
<tr>
<td align="right" valign="top"><b>Created</b></td> <td>Apr 28, 1999, 12:00:00 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Modified</b></td> <td>Apr 28, 1999, 12:00:00 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Supporting GIS</b></td> <td>MapInfo Professional</td>
</tr>
<tr>
<td align="right" valign="top"><b>OS Support</b></td> <td></td>
</tr>
</tbody></table>
</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
</tr>
<tr>
<td colspan="2" valign="top">
<b>Description</b>--></td></tr></tbody></table>


Designed to place points along a line at a predefined distance. The start line end is indicated by the user with the mouse click, and hence is not restricted to the line direction. The tool can handle line, polyline and multiple section polylines.

GIS File Library distmark-51.zip

<table border="0" cellpadding="6" cellspacing="0" hspace="4">
<tbody><tr>
<td bgcolor="#eeeeee" colspan="2">
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<tbody><tr>
<td><b>batchtools-25.zip</b> (Download Now)</td>
</tr>
</tbody></table>
</td></tr>
<tr>
<td colspan="2" valign="top">Utility bundle of batch file utilities for import, export and coordinate sys ...</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
</tr>
<tr>
<td colspan="2" valign="top">
<table border="0" cellpadding="6" cellspacing="0">
<tbody><tr>
<td align="right" valign="top"><b>File Name</b></td> <td>batchtools-25.zip (9.93 KB)</td>
</tr>
<tr>
<td align="right" valign="top"><b>Author</b></td> <td>Justin Hyland</td>
</tr>
<tr>
<td align="right" valign="top"><b>Created</b></td> <td>Feb 20, 1999, 12:00:00 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Modified</b></td> <td>Feb 20, 1999, 12:00:00 AM</td>
</tr>
<tr>
<td align="right" valign="top"><b>Supporting GIS</b></td> <td>MapInfo Professional</td>
</tr>
<tr>
<td align="right" valign="top"><b>OS Support</b></td> <td></td>
</tr>
</tbody></table>
</td>
</tr>
<tr>
<td colspan="2" valign="top"><hr size="1"></td>
</tr>
<tr>
<td colspan="2" valign="top">
<b>Description</b></td></tr></tbody></table>


GIS File Library batchtools-25.zip

Modern ships do not navigate by instinct — they navigate by satellites. Strip that layer away, and even the most advanced vessel becomes vulnerable. This is precisely the weakness a UK technology team set out to confront, not in a laboratory, but on open water.

CPI TMD, the technology arm within CPI’s Electron Device Business, has completed a live maritime deployment of a navigation system that does not depend on constant satellite input. Instead of relying on space-based signals, the system anchors itself in quantum physics — and it was tested under real working conditions at sea.

This was not a controlled demonstration aboard a research platform. The equipment was installed temporarily on an active service vessel, forced to perform amid vibration, motion, schedule pressure and the unpredictability of daily maritime operations.

Why Navigation Without Satellites Is No Longer Optional

Satellite navigation has quietly become a single point of failure. Ports, shipping lanes, energy infrastructure, emergency services and logistics chains all assume uninterrupted access to GNSS signals. When those signals degrade — through interference, conflict or technical failure — the consequences cascade rapidly.

Economic modelling has already shown that even a short nationwide GNSS disruption would ripple across transport, power distribution and supply networks. The risk is not theoretical. It is structural.

This vulnerability has accelerated interest in navigation technologies that can continue functioning when satellites disappear. The question is no longer whether alternatives are needed, but whether they can survive outside controlled environments.

A Different Approach to Inertial Navigation

The system evaluated during the sea deployment — known internally as Harlequin — does not attempt to replace inertial navigation. Instead, it reinforces it.

Traditional inertial navigation systems calculate position by continuously integrating motion data. Over time, even microscopic measurement errors accumulate, gradually pushing position estimates off course. This phenomenon, known as drift, is unavoidable with purely classical sensors.

Harlequin introduces a fundamentally different reference point. By incorporating a quantum-based accelerometer that uses ultra-cold atoms as its measurement foundation, the system periodically reins in accumulated error. Rather than letting drift grow unchecked, it resets accuracy from a physical constant governed by quantum mechanics.

The result is not perfect navigation — but longer trust in navigation when external signals vanish.

Quantum sensors are notoriously delicate. Temperature stability, isolation and calibration are usually enforced through elaborate laboratory setups. That is why proving their survivability at sea matters more than performance graphs.

During the trial, the navigation unit had to be installed, operated and removed without disrupting the vessel’s core mission. No dedicated test windows. No special handling. No environmental shielding beyond what a working ship already provides.

Despite constant movement, mechanical noise and operational interruptions, the system continued to function as designed. The significance lies not in raw accuracy, but in persistence — a prerequisite for any technology intended to leave the lab for good.

The ship itself — THV Galatea — exists to do work, not host experiments. Its responsibilities include maintaining navigational markers, inspecting sea routes, identifying hazards and supporting marine construction projects.

The navigation trial had to coexist with those tasks. Equipment was integrated temporarily, operated around existing workflows, and removed without altering the vessel’s configuration.

This constraint was deliberate. A system that requires special treatment cannot scale. A system that survives routine operational friction just might.

Navigation resilience is no longer a civilian concern alone. Offshore energy installations, undersea infrastructure, coastal surveillance and defense operations all share the same dependency: knowing where you are when satellites cannot help you.

By validating quantum-assisted inertial navigation in an operational setting, CPI TMD is contributing to a broader shift away from exclusive reliance on space-based positioning. The implications extend into security planning, infrastructure protection and contested environments where signal denial is expected rather than exceptional.

The sea trial was not an endpoint. Data collected during deployment is now feeding into system revisions focused on durability, integration and long-term stability aboard ships.

A follow-up deployment is planned toward the end of 2026, with the aim of closing the gap between experimental hardware and deployable maritime technology. Whether quantum-enhanced navigation becomes standard will depend less on theory — and more on how quietly it continues to work when everything else stops.

Geospatial Industry News

Articles

When Navigation Loses the Sky: A Quantum System Proves It Can Sail Without Satellites

Safe Pro Group has taken another step toward reshaping how unmanned systems operate when satellite navigation is no longer reliable.

Instead of assuming constant access to GPS, the company has focused its latest development cycle on enabling drones to function in environments where positioning data is blocked, jammed, or intentionally removed — a condition that has become routine in modern military operations rather than an exception.

The update centers on Safe Pro’s internally developed image-analysis platform, which has been rebuilt to extract battlefield insight directly from aerial video streams. Rather than depending on geolocation metadata, the system interprets visual data to generate spatial representations of terrain and identify explosive hazards that may otherwise remain hidden.

These new capabilities are scheduled to be showcased during the U.S. Army’s 2026 Concept Focused Warfighter Experiment at Fort Hood, an event designed to stress-test emerging technologies under conditions that closely mirror real operational constraints.

Safe Pro’s approach diverges sharply from conventional drone analytics tools. Where many platforms rely on continuous satellite input, this system is designed to operate independently of navigation signals. It can be deployed through cloud infrastructure or executed locally at the tactical edge, allowing units to process intelligence even in disconnected or heavily contested environments.

The redesign was driven by operational lessons rather than laboratory assumptions. After direct feedback from deployments and exercises conducted in active conflict zones in Eastern Europe, engineers reworked the system to perform reliably amid electronic interference. The result is a platform capable of constructing both two-dimensional and three-dimensional terrain models using video alone, while simultaneously identifying threats such as ground-based explosives or hostile aerial devices.

In addition to detection tasks, the system now provides terrain analysis functions intended to support autonomous movement planning for unmanned ground platforms. A dedicated mapping configuration allows intelligence teams to produce situational awareness outputs without running full threat-recognition workflows, reducing computational load when speed is the priority.

Processing efficiency has also been significantly reengineered. Internal benchmarks indicate that the updated algorithms shorten analysis cycles dramatically, enabling faster transitions from raw drone footage to operationally usable intelligence products.

Supporting these capabilities is a continuously expanding dataset derived from real-world operations. The platform has been trained on millions of drone images gathered across varied terrain types, allowing recognition models to improve as additional data is introduced.

As satellite denial becomes an assumed condition rather than a rare complication, tools that can operate without external navigation dependencies are moving to the center of military planning. Safe Pro’s latest release reflects this shift — prioritizing visual intelligence, autonomy, and resilience over traditional navigation-centric design.

Safe Pro Pushes Drone Intelligence Beyond GPS Limits With New Battlefield Algorithms

Keeping continuous watch over objects on Earth from orbit has long been more aspiration than reality. Now, a new research contract suggests the U.S. defense community wants to turn that idea into an automated, scalable system that relies less on human operators and more on machine decision-making.

BAE Systems’ research division, FAST Labs, has been selected to continue work on DARPA’s Oversight initiative, securing $16 million to move the project into its second development phase. The effort centers on building software that allows satellite constellations to independently maintain awareness of large numbers of ground-based assets over time — a concept known internally as persistent custody.

The funding follows an earlier experimental stage in which the company tested its approach entirely in virtual environments. During that initial phase, the system was embedded into simulation frameworks designed to mimic how satellites and sensors behave under real operational conditions. Those trials were used to validate whether an automated architecture could coordinate observation tasks without constant human direction.

The next phase shifts focus away from proof-of-concept demonstrations and toward scale and realism. Engineers will now stress-test the system against denser satellite networks, more dynamic scenarios, and increasingly detailed digital models. The aim is to see how the technology behaves when complexity rises and variables multiply — conditions that typically expose the limits of automation.

Unlike the first stage, which remained confined to modeling tools, Phase 2 is expected to bridge the gap between laboratory experimentation and operational use. The autonomous software will be prepared for deployment not only within ground-based systems but also directly aboard satellites operating at the tactical edge, where processing power, connectivity, and response time are constrained.

DARPA’s broader objective with Oversight is to explore whether future space architectures can manage surveillance tasks continuously without overwhelming human analysts. By distributing decision-making across autonomous platforms, the agency hopes to create systems that are more resilient, adaptive, and capable of handling information volumes that exceed traditional command-and-control models.

For BAE Systems, the contract represents a step deeper into autonomy-driven space operations — an area increasingly viewed as essential as satellite constellations grow larger and missions demand faster, more flexible responses.

DARPA Pushes Autonomous Surveillance Forward With New BAE Systems Contract

Redwire has secured a new contract to manufacture and supply docking hardware for Nyx, a next-generation European spacecraft designed for repeat missions and independent operations in orbit.

Under the terms of the agreement, the company will deliver two docking units built in accordance with the International Docking System Standard. These systems will be installed on Nyx, a spacecraft currently being developed to support Europe’s long-term strategy of expanding autonomous spaceflight capabilities.

The deal, estimated to be worth tens of millions of dollars, is centered on Redwire’s proprietary International Berthing and Docking Mechanism. The technology is intended to enable automated rendezvous, secure mechanical capture, and precision docking during future missions that require dependable in-space connectivity.

Enabling Next-Generation Orbital Missions

The docking solution is engineered to operate across standardized docking interfaces while supporting both assisted berthing and fully autonomous docking sequences. Its configurable design allows the system to be adapted for different mission scenarios, ranging from commercial payload delivery to institutional and exploration-related operations.

Company officials described the agreement as a meaningful contribution to Europe’s rapidly evolving commercial space landscape, noting that the system is built to meet strict safety requirements and demanding operational conditions.

Development of the docking mechanism took place in Belgium, drawing on expertise from multiple international collaborators. Additional engineering contributions from Poland have helped optimize system reliability, performance consistency, and operational resilience.

Teams working on the Nyx hardware are also leveraging experience gained from prior orbital infrastructure programs, including work related to lunar systems. Knowledge from those efforts is expected to improve system robustness and reduce operational risk once the docking units are deployed in flight.

With this contract in place, Redwire strengthens its footprint within Europe’s aerospace manufacturing ecosystem, while Nyx advances toward becoming a core platform for autonomous European space missions.

Redwire to Supply Docking Technology for Europe’s Nyx Space Capsule

HawkEye 360 has taken a decisive step toward expanding its technological capabilities in space-based intelligence by acquiring Innovative Signal Analysis (ISA), a Dallas-based company specializing in high-performance signal-processing systems.

The deal goes beyond a standard acquisition, directly embedding ISA’s engineering strengths into HawkEye 360’s radio frequency (RF) intelligence infrastructure. As part of the integration, HawkEye 360 gains access to advanced proprietary algorithms, edge-level processing tools, and scalable cloud-based architectures designed to operate in complex signal environments.

With nearly three decades of experience supporting U.S. government programs, ISA brings deep technical expertise in extracting actionable intelligence from dense and contested electromagnetic spectra. This background enables the combined organization to accelerate the development of a unified processing environment that emphasizes automation, broader signal detection, and higher-quality RF insights.

By merging HawkEye 360’s multi-domain signal collection capabilities with ISA’s signal-processing know-how, the company aims to reduce the gap between data collection and analysis. The enhanced platform is expected to support a wider range of signal types while improving responsiveness for defense, government, and international security missions.

According to HawkEye 360 leadership, the acquisition represents a significant milestone in the company’s long-term platform strategy. Integrating ISA’s technical depth strengthens the foundation of its RF ecosystem and advances its goal of becoming a central hub for all-domain signals intelligence.

The move is also intended to improve scalability and reliability across operational environments where speed and accuracy are critical. By consolidating advanced processing capabilities within a single organization, HawkEye 360 positions itself to address evolving global security challenges more effectively and deliver faster, more precise intelligence to its customers.

HawkEye 360 Strengthens RF Intelligence Stack Through Strategic ISA Acquisition

High-resolution hyperspectral satellite imagery is no longer confined to niche research environments. Pixxel has expanded the reach of its Firefly satellite constellation by distributing its data through UP42, making advanced spectral analysis available to a far broader audience.

The collaboration enables UP42 clients to source newly captured hyperspectral imagery generated by Pixxel’s six Firefly satellites. These spacecraft observe Earth’s surface using hundreds of narrow spectral channels, capturing information that standard optical sensors are unable to detect. With meter-level spatial detail and a wide observation footprint, the system is designed for operational, not experimental, use.

Rather than focusing on visual interpretation alone, Firefly data is built for material and condition analysis. The imagery can reveal early indicators of crop health issues, subtle changes in soil composition, forest stress patterns, and environmental shifts that emerge long before they become visible to the human eye or conventional satellite products.

By placing its data inside UP42’s ordering and processing environment, Pixxel removes the technical barriers that have traditionally limited hyperspectral adoption. Users can request fresh acquisitions, integrate the output directly into analytical workflows, and combine it with other Earth observation layers available on the platform.

As Pixxel continues to scale its satellite network, the availability of hyperspectral coverage is expected to increase both in frequency and geographic reach. For UP42 customers, this means access to a growing stream of spectral intelligence that supports decision-making across agriculture, climate analysis, forestry, and environmental risk assessment.

Pixxel’s Hyperspectral Satellite Data Becomes Accessible to UP42 Users Worldwide

Deforestation linked to agricultural sourcing has become increasingly difficult to track at scale, especially in regions where cocoa farming is fragmented and oversight on the ground is limited. To address this challenge, Airbus Defence and Space is supplying satellite-driven analytical capabilities to Barry Callebaut, enabling the company to independently observe land-use changes connected to cocoa cultivation.

Instead of relying on local declarations or periodic audits, Barry Callebaut now uses continuous earth-observation data to assess environmental conditions around its cocoa-growing areas worldwide. The approach shifts forest monitoring from a reactive process to an ongoing verification mechanism built on space infrastructure.

The monitoring architecture is powered by Starling, a geospatial analysis system that processes optical satellite observations captured at different spatial resolutions. By combining wide-area imagery with very high-detail views, the platform can detect subtle changes in vegetation cover and flag potential forest loss near farming zones before damage escalates.

This capability allows Barry Callebaut to examine environmental exposure not only at the level of individual suppliers, but across entire sourcing landscapes. The result is a consolidated picture of where pressure on forests is increasing and where mitigation efforts should be prioritized.

For Airbus, the project demonstrates how satellite observation can be applied beyond traditional aerospace or defense use cases. By translating raw imagery into actionable intelligence, the company enables global manufacturers to maintain visibility across complex operations that span multiple countries and regulatory environments.

Satellite-based assessment also reduces dependence on manual reporting, which can be inconsistent or delayed. Continuous observation strengthens traceability, supports internal decision-making, and provides documented evidence of environmental due diligence in regions where physical inspections are impractical.

The initiative aligns with Barry Callebaut’s long-term sourcing strategy under its Forever Chocolate commitments, which emphasize responsible production and forest protection. Integrating space-derived data into internal monitoring systems allows the company to identify environmental risks earlier and respond with targeted corrective actions.

As regulatory expectations around deforestation-free supply chains continue to tighten, satellite intelligence is increasingly becoming a core operational tool rather than an optional sustainability add-on. The Airbus–Barry Callebaut collaboration reflects this shift toward real-time environmental accountability supported by space technology.

Airbus Uses Satellite Intelligence to Help Barry Callebaut Eliminate Deforestation Risks

Europe has quietly completed another step in securing long-term access to satellite navigation by inserting two fresh spacecraft into orbit in mid-December. The launch, carried out using an Ariane 6 vehicle on December 17, forms part of a broader effort to preserve strategic autonomy in positioning and timing services.

Rather than expanding coverage, the mission addresses a different challenge: system renewal. Several early Galileo satellites are nearing the end of their service life, making replacement a necessity rather than an upgrade. The newly launched units belong to the final wave of first-generation spacecraft and are intended to sustain continuity rather than introduce new capabilities.

Satellite navigation has shifted from a specialized tool to a background utility embedded across modern infrastructure. Transport automation, supply-chain coordination, emergency services, power distribution, and secure communications now depend on uninterrupted timing and location data. As reliance grows, even short disruptions carry significant consequences.

Galileo supports these functions at scale, underpinning daily operations for users worldwide. Maintaining reliability at that level depends as much on system management as on the satellites themselves.

The operational backbone of the program lies on the ground. Galileo’s control architecture, designed and operated by GMV, does far more than track spacecraft. It continuously evaluates satellite condition, adjusts orbital behavior, and safeguards signal performance to keep the network aligned as a single system.

These activities are coordinated from control centers in Germany and Italy, where teams oversee trajectory updates, maneuver execution, and integrity monitoring. This centralized oversight allows Galileo to function as a unified navigation service rather than a fragmented collection of orbiting assets.

After separation from the launch vehicle, GMV specialists also managed the early post-launch phase, confirming spacecraft status and guiding their transition into routine operation. Errors at this stage can ripple through the network, making early validation a critical safeguard against future instability.

With the satellites now integrated, Europe reinforces its ability to operate Galileo independently while laying the groundwork for future generational upgrades to the system.

Galileo Expands Constellation With Two New Satellites After Ariane 6 Launch

Access to detailed geographic information across Europe has taken a step toward simplification with the completion of the Open Maps For Europe 2 initiative, which has finalized a shared spatial resource spanning multiple countries.

The finished release makes it possible to view and use large-scale mapping information from ten European states within a single environment, removing the usual need to consult separate national systems. The material covers key spatial elements such as borders, transport routes, and surface water features, all aligned to a unified spatial framework.

Instead of stitching together maps maintained independently by different authorities, the project rebuilt the data into a common structure. Public records from land administration, cartographic, and cadastral bodies were processed through a centralized workflow designed to smooth inconsistencies where national datasets typically fail to align at borders. The result is a continuous geographic representation that can be accessed through one platform rather than multiple national portals.

This effort was carried out through collaboration among several European bodies responsible for official geographic information. EuroGeographics played a coordinating role, working alongside mapping and cadastral institutions from a number of EU member states, each contributing verified source material and technical expertise.

Project leaders say the approach demonstrates how cross-border geographic information can be made easier to use without forcing users to manage different formats, technical standards, or access points. By handling alignment and harmonization at the production stage, the system reduces the complexity normally associated with multinational spatial analysis.

The final output prioritizes three categories of information that consistently rank highest among public-sector and professional users: territorial administration, transport infrastructure, and inland water systems. These layers are intended to serve as a practical foundation for future Europe-wide spatial services, supporting policy implementation at the EU level and reflecting internationally recognized principles for core geospatial data.

Open Maps For Europe 2 Expands Coverage With Final High-Value Data Release

Modern golf is no longer played on intuition alone. A golfer today steps onto the course with an app, a watch, and a stream of live data that reshapes every decision — from club selection to scorekeeping. A best golf GPS app is no longer just a digital map; it’s a personal performance assistant that follows every shot, every hole, and every round.

We ran a hands-on test of leading golf apps to understand how each performs in real conditions — measuring distance accuracy, shot tracking reliability, Apple Watch integration, battery impact, and overall usefulness for different types of players.

Arccos Caddie: Shot Tracking That Learns Your Golf Game

For golfers who want numbers instead of guesses, Arccos sits in a class of its own. Rather than relying on manual input, this golf GPS app works with dedicated sensors that attach to each club, allowing the system to record shots automatically.

Every swing, miss, and recovery becomes part of a growing performance profile. Over time, the app builds a statistical model of your golf game and uses strokes gained analysis to highlight where shots are lost — whether it’s approach play, short game, or putting.

Automatic shot-tracking with no manual logging;

Highly accurate yardages to greens and hazards;

Advanced analysis that adapts to your playing style;

Seamless Apple Watch support for on-course use.

This isn’t a completely free setup — sensors and a premium membership are required — but for golfers focused on measurable improvement, the tradeoff delivers serious value.

Motocaddy GPS App: Free Golf GPS That Keeps Things Simple

Not every golfer wants sensors, subscriptions, or advanced analysis. Motocaddy’s golf app strips things back to essentials and does them well. It’s completely free, easy to download, and designed for golfers who just want reliable distances without complexity.

The app provides clear yardages to the front, middle, and back of the green, along with hazard locations and basic hole layouts. It covers tens of thousands of golf courses worldwide and runs efficiently even during long rounds.

It won’t track shots automatically, but for players who prefer simplicity over data overload, it proves that you don’t need to pay to get dependable GPS golf distances.

Hole19: A Golf App Built for Apple Watch Players

Hole19 earns its reputation by balancing features and accessibility. This golf GPS app works equally well on smartphones and Apple Watch, letting players leave their phone in the bag while tracking distances and scores directly from the wrist.

Offline maps, smooth performance, and strong smartwatch integration make it especially appealing to golfers who want flexibility during a round. Shot distances can be logged manually, while premium tools unlock deeper stats and insights.

Accurate distances to the green and hazards;

Optional premium membership for advanced stats.

Hole19 fits golfers who want GPS, scorekeeping, and smartwatch convenience without committing to a complex ecosystem.

Bushnell Golf App: Rangefinder Accuracy in App Form

Bushnell’s reputation in laser rangefinders carries over into its golf GPS app. Instead of focusing on advanced shot tracking, the app emphasizes clarity, reliability, and clean visual layouts.

Distances are accurate, hole views are easy to read, and scorekeeping is straightforward. Golfers already familiar with Bushnell devices will feel immediately comfortable using the app.

Golfers who prefer clean displays over analytics;

It’s a practical option for golfers who value consistency and trust proven hardware brands.

Golfshot: GPS Golf with Augmented Reality

Golfshot takes a different route by combining GPS data with augmented reality. By using your phone’s camera, the app overlays targets, hazards, and landing zones onto the live course view.

This creates a visual way to plan shots that goes beyond traditional maps. Golfshot also includes scorekeeping, detailed stats, and strong Apple Watch support.

Accurate real-time distances during tournaments;

Golfers who enjoy visual aids and modern technology will appreciate how Golfshot reshapes course navigation.

VPAR: Competitive Golf and Tournament Tracking

VPAR isn’t just about yardages — it’s about competition. Alongside GPS distances, the app allows golfers to create matches, join tournaments, and follow live leaderboards.

Formats like stroke play, match play, and Stableford are fully supported, making it ideal for club events and social golf.

Players who enjoy live scoring and rankings.

While shot data remains basic, the social and competitive features give VPAR a distinct identity.

How to Choose the Best Golf GPS App for Your Game

There’s no universal answer to which app is “best.” The right choice depends on how you play.

Reliable distances to greens, hazards, and targets are non-negotiable. Look for regularly updated course maps.

Golfers chasing a lower handicap benefit from shot-tracking and post-round analysis.

A user-friendly interface matters. The best app lets you focus on your swing — not menus.

Smartwatch support reduces phone dependency and improves on-course convenience.

Some apps are free, others require a premium membership. Decide which features actually improve your golf.

Final Thoughts: Finding the Right Golf GPS App

There is no single “perfect” golf GPS solution. Some golfers want automatic shot-tracking systems like Arccos. Others prefer free, no-frills apps like Motocaddy. Many fall somewhere in between.

What matters is choosing a best golf GPS app that fits how you play — whether that means tracking every shot, managing scores, or simply getting accurate distances to the green.

When the right app is in your pocket or on your watch, every round becomes easier to manage, easier to analyze, and more enjoyable to play.

Do Golf GPS Apps Work Without Internet Access?

Yes. Most apps allow course maps to be downloaded in advance and used offline during a round.

Modern GPS apps provide yardages accurate enough for competitive play, thanks to improved mapping and satellite data.

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