PDM laser sources are specially designed for security evaluation of integrated circuits. Reliable and robust, these laser sources enable generate on demand pulses from less than 1 ns, up to continuous wave with a timing precision of 8 ps and a spot size of 1 µm. Whether this is for fault injection or for thermal stimulation, Pulse-on-Demand Modules (PDM) lasers are ideal to evaluate and analyze integrated circuits.
Product references: PDM-HPP / PDM+ / PDM+ HP / PDM2+ / PDM2+ HP / PDM4+ / PDM4+ HP
The principle of PDM (Pulse-on-Demand Module) laser sources is to be able to generate the optical pulse request via an external triggering signal or an internal pulse generator. These sources allow you to have all the agility and the timing precision for fault injection on integrated circuits. Typically, PDM laser sources can generate:
- variable pulses going from one nanosecond/sub-nanosecond to continuous
- from single pulse shot up to 250 MHz
- timing precision on arrival of pulse <8 ps
The laser sources can be driven by analog signal or by computer with dedicated software or hexa commands.
A wide range of PDM+ laser sources adapted to your projects:
ALPhANOV offers different types of PDM laser sources:
- The PDM HPP - High Pulse performance, ideal for ultra-short pulses.
- The standard PDM+ generating pulses up to 2 W peak power.
- The PDM+ HP (high power), generating higher power pulses, up to 3.9 W
- The PDM2+ & PDM2+ HP combining two PDM+ modules into one output fiber, up to 4.5 W
- The PDM4+ & PDM4+ HP combining four PDM+ modules into one output fiber, up to 10 W
All of these PDM are available at different wavelengths such as 808, 980,1064 and 1420 nm.
The precision and reliability of a single-mode fibered laser
All PDM laser sources are single-mode and all fiber designed. They allow generation of Gaussian and extremely fine laser spots. All the power of the laser source can be available on a spot size of 1 µm.
This all-fiber design module is reliable and robust with a low-maintenance cost.
Driven by software, DLLs and by Python.
PDM+ laser sources are software controlled. DLLs are provided and serial port communication enables to control it under different environments, particularly using Python.
- Wavelengths: 808 nm, 980 nm, 1064 nm, 1420 nm
- Pulse duration: sub ns to continuous wave
- Frequency: single pulse to 250 MHz
- Peak power: up to 10 W
- Spot size: up to 1 µm (single-mode source)
- Type: single-mode fiber laser
- Control: software included, RS232 communication
Associated products or services
Single laser fault injection microscope - S-LMSThe S-LMS microscope station for laser fault injection is a high-precision platform for security evaluation of integrated circuits. It allows you to focus the laser spot and scan the sample through the back side in order to evaluate the security levels of the electronic components.
Double laser fault injection microscope - D-LMSThe D-LMS microscope station for double laser fault injection is a platform allowing to focus and scan independently two laser spots for security evaluation of integrated circuits. Ideal for double spot injection processes, it offers all the spatial and temporal flexibility to analyze circuits through the back side.
Pulse delay generator ideal for timing and synchronizationThis pulse delay generator generates high frequency pulses, digital delays and bursts. It is an ideal synchronization and timing control instrument for electronics and lasers.
Photoemission optical benchWhen an integrated circuit is in operation, the zones requested by the routine naturally emit infrared photons via the rear panel. ALPhANOV’s photoemission optical bench allows you to capture and visualise these photonic emissions in order to obtain a precise view of the circuit activity.
Thermal Laser Stimulation - TLSThe thermal laser stimulation bench is an optical microscope which enables to focus with precision, a PDM+ laser source (Pulse-on-Demand Module) at 1420 nm. Used through the back side of electronic components, the laser beam warms the sample locally and allows to extract and read out data in a memory according to the current consumption of the transistors.