HomeElectronicsRenewable EnergyPrinting Perovskite Solar Cells

Printing Perovskite Solar Cells

To reach the target of carbon neutral, a transition from fossil energy to renewable energy generation is indispensable. Photovoltaic technology is considered as one of the most prominent sources of renewable energy. For decades, about 90% of global solar cells market has been dominated by silicon solar cells. Although the price of silicon solar panels decreases year by year, it is a big challenge to significantly reduce its manufacturing cost further. Hence, next-generation photovoltaic technologies are in urgent need of new materials and novel techniques. Recently, metal halide perovskite solar cells (PSCs) have attracted extensive attention from both academia and industry, due to their excellent photoelectric conversion efficiency and great commercial potential.

Metal halide perovskite materials can be easily synthesized in solution at low-temperature and deposited into thin-film through a variety of printing method. Recently, many reviews have been published on the topic of perovskite film deposition techniques/mechanisms, such as solvent engineering and additives-engineering, whereas discussions about ink engineering for printing high-quality perovskite films as well as other function layers are few.

There is a systematical overview of applicable printing technologies that can be possibly used for scaling-up PSCs The ink engineering is the key issue to achieve high quality thin films for efficient solar cells. Therefore, they mainly focus on the perspective of perovskite precursor ink formula and additives on controlling the film formation process. They analyze the potential physical and chemical mechanisms of the nucleation and crystallization process during the printing. For the additives in the printing of PSCs, the effect of additives for the film formation process, the microstructure and defect population.

Moreover, they also present the technical feasibility of printing the other layers besides perovskite layers, including hole transporting layers (HTL) and electron transporting layers (ETL), which might enable a rapid and mass production of PSCs. Finally, they introduce the recent progress of roll-to-roll (R2R) printing and the stability issues of perovskite modules, and give a prospect of mass production of perovskite solar modules in the near future.

Related News

Must Read

Rohde & Schwarz Secures Critical Certification for Next-Gen eCall Compliance

Rohde & Schwarz successfully certifies the testing of its...

XpressConnect PCIe 6.0: Solving AI Data Center Latency

Strengthening Microchip Technology’s data center solutions portfolio, the retimers...

BTL Deploys Taiwan’s First CTIA-Compliant OTA Test System with Rohde & Schwarz

Rohde & Schwarz supplies the independent test house BTL Laboratory in...

Optimizing Vision: High-Performance Testing for Industrial Cameras and Displays

Video Dragon 6222 combines a frame grabber and frame...

Infineon Brings 800V Power Delivery to Nvidia’s MGX AI Server Racks

Infineon Technologies, a leading provider of power systems and...

Keysight Tackles Semiconductor Talent Gap with Executable RF Design Whiteboard

Keysight Technologies, Inc. announces a new capability within its...

MacDermid Alpha Tackles Power Module Reliability

MacDermid Alpha Electronics displays its latest attachment materials, which...

Essential Performance Meets Real-time Control in Microchip’s dsPIC33CK

Microchip’s dsPIC33CK Value Line DSCs offer a streamlined design...