Cold atmospheric pressure plasma

Last week, the Japanese Pharmaceuticals and Medical Devices Agency (PMDA) registered relyon plasma as a foreign manufacturer. Together with its new partner Toshin Dental Supply, relyon plasma intends to intensify the use of cold atmospheric pressure plasma in the dental industry in the future.

A visualization of activated area on polymers is done with test ink to evaluate atmospheric pressure plasma jets (APPJ). The shrinkage characteristics of the test ink are collected using activation image recording (AIR).

One of the most common applications of cold plasma is the activation of polyolefines, such as polypropylene (PP) prior to an adhesive process.

The subject of this whitepaper is the atmospheric pressure plasma jet piezobrush® PZ3, developed by relyon plasma GmbH in Regensburg

Cold atmospheric plasma (CAP), the core technology of plasma medicine, is attracting tremendous attention due to its ability and versatility to manipulate various types of cells, including stem cells.

The plasma handheld device piezobrush is the easy, safe and environmentally friendly way to use plasmatechnology as start-ups and small businesses.

The article describes the development of a method for deposition of low‐density polyethylene (LDPE) on rotating three‐dimensional aluminum alloy substrates is presented.

TAZ Spiegelau is researching on the coating of glass beads with plasma from the plasmabrush PB3.

Scientists of Osaka Dental University researched on the effect of plasma treatment of titanium surface on biocompatibility. The entire test series was performed with the piezobrush PZ2 from relyon plasma.

Industrial parts cleaning with plasma is an environmentally friendly and inline-capable cleaning technology that ensures high quality in downstream processes.

We are really proud that the expert for surface treatment Dr. Richard Suchentrunk has published an interesting article about relyon plasma in the magazine Galvanotechnik.

The reduction of metal surfaces with atmospheric plasma processes is suitable for a variety of metals and alloys.

The high temperatures which are reached in most plasma applications make many users wonder about process safety, especially when highly sensitive materials are treated. This article addresses open questions concerning temperature and heat conduction during plasma applications and cites critical examples which substantiate the suitability of plasma for temperature-critical processes.

Through a simple measurement of the surface energy, the activation capacity of a surface treatment may be evaluated and quantified. This allows for a quantitative comparison of the performance and efficiency of various methods of surface treatment using a physically defined quantity.

Is the surface treatment of electronic devices with atmospheric pressure plasma possible? We have started a series of tests.