In a future scenario, a swarm of "loitering munitions" (e.g., Switchblade 600) observes multiple moving targets. Each munition generates STANAG 4347 "target update" messages. An AI at the FDC correlates these into a single "Time on Target" mission for six different gun batteries. The AI generates the fire plan, and the guns fire simultaneously—all without a human observer saying a word.
is a critical NATO Standardization Agreement that defines the Nominal Static Range Performance for Thermal Imaging Systems . Its primary purpose is to provide a standardized technical framework for comparing the performance of various thermal imagers used to view ground targets from the surface or slightly elevated positions. The Core Objectives of STANAG 4347
As autonomous systems, hypersonic artillery, and AI targeting emerge, STANAG 4347 will continue to evolve—remaining the quiet, unbreakable backbone of digital fires. For any defense contractor, software engineer, or artillery officer working in the NATO environment, mastering STANAG 4347 is not optional. It is the price of admission to the modern fight.
Tactical fire direction officers (FDOs) must still know the manual method. If the digital link breaks (due to jamming, EMP, or dead batteries), the unit must revert to voice. STANAG 4347 promotes digital proficiency, but it also risks creating a generation of officers who cannot call for fire without a tablet.
In a voice call-for-fire, a soldier says: "Grid NK 123456, altitude 200, three tanks, illumination, fire for effect." In STANAG 4347, this becomes a structured binary or XML message. It contains specific fields for:
For legacy units, technology now exists to convert live voice Call-for-Fire into STANAG 4347 messages. Using natural language processing (NLP), a tablet listens to the observer, transcribes "Grid Bravo 123 456," and builds the data frame. This allows digital fire control without replacing legacy radios.
In a future scenario, a swarm of "loitering munitions" (e.g., Switchblade 600) observes multiple moving targets. Each munition generates STANAG 4347 "target update" messages. An AI at the FDC correlates these into a single "Time on Target" mission for six different gun batteries. The AI generates the fire plan, and the guns fire simultaneously—all without a human observer saying a word.
is a critical NATO Standardization Agreement that defines the Nominal Static Range Performance for Thermal Imaging Systems . Its primary purpose is to provide a standardized technical framework for comparing the performance of various thermal imagers used to view ground targets from the surface or slightly elevated positions. The Core Objectives of STANAG 4347 stanag 4347
As autonomous systems, hypersonic artillery, and AI targeting emerge, STANAG 4347 will continue to evolve—remaining the quiet, unbreakable backbone of digital fires. For any defense contractor, software engineer, or artillery officer working in the NATO environment, mastering STANAG 4347 is not optional. It is the price of admission to the modern fight. In a future scenario, a swarm of "loitering munitions" (e
Tactical fire direction officers (FDOs) must still know the manual method. If the digital link breaks (due to jamming, EMP, or dead batteries), the unit must revert to voice. STANAG 4347 promotes digital proficiency, but it also risks creating a generation of officers who cannot call for fire without a tablet. The AI generates the fire plan, and the
In a voice call-for-fire, a soldier says: "Grid NK 123456, altitude 200, three tanks, illumination, fire for effect." In STANAG 4347, this becomes a structured binary or XML message. It contains specific fields for:
For legacy units, technology now exists to convert live voice Call-for-Fire into STANAG 4347 messages. Using natural language processing (NLP), a tablet listens to the observer, transcribes "Grid Bravo 123 456," and builds the data frame. This allows digital fire control without replacing legacy radios.