Users can model standard boxes, multi-chamber enclosures, passive radiators, transmission lines, and compound (isobaric) driver configurations.
& ARTA : Excellent dual-channel measurement programs that replace the hardware analysis functions originally managed by LinearX's companion hardware analyzer, the LMS.
If you are looking for current software with similar capabilities, the industry has largely shifted toward: Linearx Leap 5
To understand the Leap 5's position, it is compared against two common alternatives:
When LEAP 5 launched in 2003, it existed in a class of its own. Even compared to modern freeware, LEAP 5 features structural advantages that maintain its legendary status: Legacy LEAP 5 Standard Modern Freeware Deep 53-parameter non-linear modeling. Basic Thiele-Small approximations. Cabinet Shapes Arbitrary, multi-chamber 3D structural modeling. Limited to simple rectangles or wedges. Design Methodology Direct synthesis based on targets. Manual slider adjustment and guesswork. Acoustic Simulation High-order diffraction shell engines. Basic flat-baffle approximations. Technical Legacy and Modern Workarounds Even compared to modern freeware, LEAP 5 features
Seamless integration with third-party tools and cloud services. No more export/import loops. Just connect, sync, and go.
utilizes a large-signal transient solver. This means: Limited to simple rectangles or wedges
You mount a raw driver (say, a 10-inch subwoofer) in free air. Using the LPM module, you apply a stimulus and measure impedance curves. The software computes the electrical Q (Qes), mechanical Q (Qms), and total Q (Qts) with laboratory precision.
LinearX Systems ceased operations several years ago, meaning LEAP 5 is no longer officially supported or sold. Despite this, it remains in use by "old-school" engineers and DIY enthusiasts who maintain legacy systems to run it.
The 160 kW variants are capable of accelerating from 0 to 100 km/h in an impressive 6.4 seconds, making it one of the faster options in its segment. Charging Capability