Disclosures of the present invention mainly describe a method for manufacturing perovskite solar cell module. At first, a laser scribing is adopted for forming multi transparent conductive films (TCFs) on a transparent substrate. Subsequently, by using a first mask, multi HTLs, active layers, and ETLs are sequentially formed on the TCFs. Consequently, by the use of a second make, each of the ETLs is formed with an electrically connecting layer thereon, such that a perovskite solar cell module comprising a plurality of solar cell units is hence completed on the transparent substrate. It is worth explaining that, during the whole manufacturing process, each of the solar cell units is prevented from receiving bad influences that are provided by laser scribing or manufacture environment, such that each of the solar cell units is able to exhibit outstanding photoelectric conversion efficiency.

Disclosures of the present invention mainly describe a method for manufacturing perovskite solar cell module. At first, a laser scribing is adopted for forming multi transparent conductive films (TCFs) on a transparent substrate. Subsequently, by using a first mask, multi HTLs, active layers, and ETLs are sequentially formed on the TCFs. Consequently, by the use of a second make, each of the ETLs is formed with an electrically connecting layer thereon, such that a perovskite solar cell module comprising a plurality of solar cell units is hence completed on the transparent substrate. It is worth explaining that, during the whole manufacturing process, each of the solar cell units is prevented from receiving bad influences that are provided by laser scribing or manufacture environment, such that each of the solar cell units is able to exhibit outstanding photoelectric conversion efficiency.

A method comprises heating a first electrically conductive layer that is to be electrically contacted, and that is arranged on a first element, and pressing a first end of a bonding wire on the first electrically conductive layer by exerting pressure to the first end of the bonding wire, and further by exposing the first end of the bonding wire to ultrasonic energy, thereby deforming the first end of the bonding wire and creating a permanent substance-to-substance bond between the first end of the bonding wire and the first electrically conductive layer. The bonding wire either comprises a rounded cross section with a diameter of at least 125 m or a rectangular cross section with a first width of at least 500 m and a first height of at least 50 m.

The method of manufacturing a functional inlay comprises the steps of: a support layer with at least a first and a second side a wire antenna in said support layer processing said support layer with said embedded wire antenna to a connection station in which said support layer is approached on said first side by a holding device holding a chip with a surface comprising connection pads; said support layer is approached on said second side by a connection device; and said antenna wire is connected to said connection pads by means of a reciprocal pressure exerted between said holding device and said connection device.

The method of manufacturing a functional inlay comprises the steps of: a support layer with at least a first and a second side a wire antenna in said support layer processing said support layer with said embedded wire antenna to a connection station in which said support layer is approached on said first side by a holding device holding a chip with a surface comprising connection pads; said support layer is approached on said second side by a connection device; and said antenna wire is connected to said connection pads by means of a reciprocal pressure exerted between said holding device and said connection device.