At LiFT-PV, we see ourselves as an enabler of next-generation solar technologies. Building on our thin-film silicon heritage, we are now expanding into high-value perovskite substrates - helping partners scale their innovations faster. Whether delivering full flexible modules or engineered substrates, our role is to provide the manufacturing expertise, materials integration, and reliability needed to bring lightweight solar into new markets and applications.
LiFT-PV combines deep expertise in thin-film solar technology with a fully integrated roll-to-roll production platform—allowing us to develop and manufacture flexible, lightweight solar modules and high-performance substrates for perovskite devices. Our unique value lies in the ability to deposit complex functional layers (like transparent conductors and barriers) at scale, all under one roof. This positions us as a one-of-a-kind partner for next-generation solar innovations.
Perovskites are a new class of materials used to make high-efficiency solar cells. Named after their crystal structure, perovskites can absorb sunlight very effectively and can be manufactured using low-cost, scalable processes—such as printing or roll-to-roll coating. They are lightweight, flexible, and well-suited for next-generation solar applications where traditional panels fall short.
Flexible solar modules do not require specific or complex mounting systems due to their lightweight and flexible nature, they offer more versatility in how they can be installed.
Yes, flexible solar modules are compatible with energy storage systems just like traditional solar panels. They generate direct current (DC) electricity, which can be stored in batteries through an inverter or charge controller
LiFT PV's modules can be installed on a curved, irregular surface, lightweight, fragile structure and on roofing material like Steel, Aluminum, Bitumen, Poly Carbonate.
The lifespan of modules generally ranges between 10 to 20 years.
Flexible solar modules are generally less efficient than traditional rigid solar panels. This difference arises mainly from the materials and technologies used in flexible modules, such as thin-film photovoltaics (amorphous silicon), which have lower conversion efficiency compared to the crystalline silicon used in traditional panels.
On average, traditional rigid solar panels have efficiencies around 22%, while flexible solar modules typically have efficiencies around 8%. However, flexible panels are improving, with some advancements bringing them closer to the efficiency of traditional panels.
Despite the efficiency gap, flexible solar panels offer other advantages:
Flexible solar panels are a type of photovoltaic technology that uses thin-film materials, such as amorphous silicon, instead of traditional rigid silicon wafers. This makes them lightweight, bendable, and adaptable to a variety of surfaces, including curved or irregular structures.
Unlike traditional glass-based solar panels, which are heavy and require rigid mounting systems, flexible solar panels are ultra-light and can be installed using adhesives or lighter mounting solutions, making them ideal for applications where weight or space is a concern. They can be used in places like rooftops, vehicles, boats, and building facades where traditional panels may not be feasible.
These panels are designed for versatility, durability, and ease of installation, although they tend to have slightly lower efficiency compared to rigid panels. However, advancements in thin-film technology continue to improve their performance, making them a valuable option for energy generation in challenging environments.