Sophisticated
Fuzing Technology
Fuzing Technology
Fuzing Technology
We develop and manufacture fuze systems as an integral part of our warhead systems — from target sensors and customized safety features for Electronic Safety And Arming Devices in loitering munition and missile applications including the world's most advanced programmable penetration fuzes.
Intelligent Fuzing
Programmable fuzing systems with layer counting and void sensing capabilities – unique worldwide.
Maximum Safety
In line fuzing systems applying LEEFI detonators and fire sets which have been qualified according to German as well as US standards.
Shock Robustness
Electronics hardened for up to 60,000 G accelerations, suitable for the most demanding penetration scenarios.
Modular Design
Latest configurations offer a software-based safety architecture which allows easy customization and adaption to any warhead and platform integration.
ESAD — Electronic Safety & Arming Device
ESAD — Electronic Safety & Arming Device
ESAD — Electronic Safety & Arming Device
We design modular electronic fuzing systems for Complex Weapons based on a three-stage architecture: Fuze Control Electronic for interface and mission programming, Fire Set Electronic for high-voltage generation and triggering, and a two-stage arming logic with optically isolated safety switches. The system uses Exploding Foil Initiator technology — propelling a Kapton flyer at speeds of 3,000 to 4,000 m/s to reliably initiate the explosive charge.
We design modular electronic fuzing systems for Complex Weapons based on a three-stage architecture: Fuze Control Electronic for interface and mission programming, Fire Set Electronic for high-voltage generation and triggering, and a two-stage arming logic with optically isolated safety switches. The system uses Exploding Foil Initiator technology — propelling a Kapton flyer at speeds of 3,000 to 4,000 m/s to reliably initiate the explosive charge.
Modular Architecture
Safety and Arming Electronic, Fireset Electronic and an optional Interface Electronic feature a modular design and can be configured according to customer requirements.
Modular Architecture
Safety and Arming Electronic, Fireset Electronic and an optional Interface Electronic feature a modular design and can be configured according to customer requirements.
Modular Architecture
Safety and Arming Electronic, Fireset Electronic and an optional Interface Electronic feature a modular design and can be configured according to customer requirements.
Modular Architecture
Safety and Arming Electronic, Fireset Electronic and an optional Interface Electronic feature a modular design and can be configured according to customer requirements.
LEEFI Initiation
All our ESAD designs are based on LEEFI technology which allows sophisticated arming concepts and avoids the risk of unexploded ordnance with unknown arming status.
LEEFI Initiation
All our ESAD designs are based on LEEFI technology which allows sophisticated arming concepts and avoids the risk of unexploded ordnance with unknown arming status.
LEEFI Initiation
All our ESAD designs are based on LEEFI technology which allows sophisticated arming concepts and avoids the risk of unexploded ordnance with unknown arming status.
LEEFI Initiation
All our ESAD designs are based on LEEFI technology which allows sophisticated arming concepts and avoids the risk of unexploded ordnance with unknown arming status.
Arming Sensors
Our modular ESAD concepts feature integrated accelerometers for one arming criterion but also allow connecting external sensors.
Arming Sensors
Our modular ESAD concepts feature integrated accelerometers for one arming criterion but also allow connecting external sensors.
Arming Sensors
Our modular ESAD concepts feature integrated accelerometers for one arming criterion but also allow connecting external sensors.
Arming Sensors
Our modular ESAD concepts feature integrated accelerometers for one arming criterion but also allow connecting external sensors.
Autonomous Power
Low-loss power management with only 500 mW consumption and up to 800 ms autonomous operation.
Autonomous Power
Low-loss power management with only 500 mW consumption and up to 800 ms autonomous operation.
Autonomous Power
Low-loss power management with only 500 mW consumption and up to 800 ms autonomous operation.
Autonomous Power
Low-loss power management with only 500 mW consumption and up to 800 ms autonomous operation.
PIMPF — Programmable Intelligent Multi-Purpose Fuze
PIMPF — Programmable Intelligent Multi-Purpose Fuze
PIMPF — Programmable Intelligent Multi-Purpose Fuze
Developed for the TAURUS KEPD 350 missile, respectively the MEPHISTO penetrator warhead, the PIMPF is the world's only fuzing system capable of layer counting and void sensing. It is programmed to detonate at a pre-selected point deep within the target structure — counting successive impact and exit phases as the penetrator passes through walls, floors and cavities. Its shock robustness is unequalled, enabling reliable function under the extreme loads of supersonic penetration.
Developed for the TAURUS KEPD 350 missile, respectively the MEPHISTO penetrator warhead, the PIMPF is the world's only fuzing system capable of layer counting and void sensing. It is programmed to detonate at a pre-selected point deep within the target structure — counting successive impact and exit phases as the penetrator passes through walls, floors and cavities. Its shock robustness is unequalled, enabling reliable function under the extreme loads of supersonic penetration.
Layer Counting
Automatically detects impact and exit phases through multiple structural layers to identify the programmed detonation point.
Layer Counting
Automatically detects impact and exit phases through multiple structural layers to identify the programmed detonation point.
Layer Counting
Automatically detects impact and exit phases through multiple structural layers to identify the programmed detonation point.
Layer Counting
Automatically detects impact and exit phases through multiple structural layers to identify the programmed detonation point.
Void Sensing
Distinguishes between structural material and empty spaces inside the target — enabling precise depth-of-burst control.
Void Sensing
Distinguishes between structural material and empty spaces inside the target — enabling precise depth-of-burst control.
Void Sensing
Distinguishes between structural material and empty spaces inside the target — enabling precise depth-of-burst control.
Void Sensing
Distinguishes between structural material and empty spaces inside the target — enabling precise depth-of-burst control.
Unequalled Robustness
Functions reliably under the extreme shock loads of high-velocity penetration into hardened structures.
Unequalled Robustness
Functions reliably under the extreme shock loads of high-velocity penetration into hardened structures.
Unequalled Robustness
Functions reliably under the extreme shock loads of high-velocity penetration into hardened structures.
Unequalled Robustness
Functions reliably under the extreme shock loads of high-velocity penetration into hardened structures.
Worldwide Unique
No other fuzing system in the world combines programmable layer counting with void sensing in a single device.
Worldwide Unique
No other fuzing system in the world combines programmable layer counting with void sensing in a single device.
Worldwide Unique
No other fuzing system in the world combines programmable layer counting with void sensing in a single device.
Worldwide Unique
No other fuzing system in the world combines programmable layer counting with void sensing in a single device.
Target Sensor
Target Sensor
Target Sensor
The target sensor is based on LIDAR technology and can detect objects in front of an effector. While transmitting infrared laser pulses and receiving the echoes, the sensor generates a trigger signal for detonating the warhead. In order to achieve a precise timing and a maximum warhead performance, the calculation of the trigger signal considers the distance to the target and the closing velocity. An integrated shock sensor can be used as a fallback option to trigger the warhead at impact. The signal processing is programmable which allows an adaption to multiple scenarios with different detection ranges and target types.
The target sensor is based on LIDAR technology and can detect objects in front of an effector. While transmitting infrared laser pulses and receiving the echoes, the sensor generates a trigger signal for detonating the warhead. In order to achieve a precise timing and a maximum warhead performance, the calculation of the trigger signal considers the distance to the target and the closing velocity. An integrated shock sensor can be used as a fallback option to trigger the warhead at impact. The signal processing is programmable which allows an adaption to multiple scenarios with different detection ranges and target types.
Compact dimensions
The sensor measures only 35 x 25 x 80 mm for easy integration in the seeker section of an effector.
Compact dimensions
The sensor measures only 35 x 25 x 80 mm for easy integration in the seeker section of an effector.
Compact dimensions
The sensor measures only 35 x 25 x 80 mm for easy integration in the seeker section of an effector.
Compact dimensions
The sensor measures only 35 x 25 x 80 mm for easy integration in the seeker section of an effector.
Robust design
The sensor hardware is designed to survive a temperature range between -40°C and +80°C as and in high altitudes. Further on, it features an IP67 environmental protection.
Robust design
The sensor hardware is designed to survive a temperature range between -40°C and +80°C as and in high altitudes. Further on, it features an IP67 environmental protection.
Robust design
The sensor hardware is designed to survive a temperature range between -40°C and +80°C as and in high altitudes. Further on, it features an IP67 environmental protection.
Robust design
The sensor hardware is designed to survive a temperature range between -40°C and +80°C as and in high altitudes. Further on, it features an IP67 environmental protection.
Adaptable characteristics
The settings of the sensor can be configured for short and long standoffs, ranging from 15 cm to 15 meters.
Adaptable characteristics
The settings of the sensor can be configured for short and long standoffs, ranging from 15 cm to 15 meters.
Adaptable characteristics
The settings of the sensor can be configured for short and long standoffs, ranging from 15 cm to 15 meters.
Adaptable characteristics
The settings of the sensor can be configured for short and long standoffs, ranging from 15 cm to 15 meters.
ENGINEERING THE FUTURE OF DEFENCE