Tens of thousands of people are conceived every year using donated sperm. A single sperm donor can anonymously father multiple children, so there's a risk of ‘accidental incest’, where sexual relationships develop between half-siblings who are unaware they’re related. My work explores the role that genetic technology will play in romantic relationships in the near future - for example in the avoidance of accidental incest. I aim to examine how new biotechnologies, and the companies that develop them, might lead to new types of relationships between friends, families and lovers.

'Accidental Incest' show and question the scenario which focus the case of a world where many more people are born using sperm or egg donors and accidental incest in the near future. What if the technology allows us to eliminate danger that a resulting baby could get genetic disease, sibling marriage becomes acceptable in social and cultural context? or not?

The portable devices are designed to capture and analyse the genetic contents of both sexes and allow transfer of their respective DNA sequences into the main device. Through genetic engineering, the main device re-programs both the man and women's gene to become free of a genetic disease. As soon as the main device receives their genetic information, bio-chemical sampling assays using nanotechnology allows creation of the new gene by spreading their body cells and letting them grow on the surface of a gold pendant.

After two weeks of cleansing, the gold pendant containing the new gene may be applied to pregnant women in the form of bio-patch delivery system. The new gene then is permeated slowly into the baby via this delivery system.

Cooperjay Kim

The mechanism that this sentence reaches your retina falls on at least one of the following scenarios. It’s the light reflected by the ink molecules that were absorbed through the capillary fibers of the pulp of the paper that you’re holding. Or it is the visible light which was originally a beam of electrons that was bent and fluoresced by electromagnetic forces. Or it is sum of lights that just passed through the barriers of liquid crystal molecules.

Or it may have come from tiny little light bulbs that illuminates through plasma discharges. One certain fact is that you don’t imagine any of these situations described above when you read a sentence like this one. But that is until you stand in front of the piece “R”.
Like inspecting internal structure of a clock through a magnifying glass, like appreciating delicate micro symphony of tiny little gears and windup springs, when you’re in front of “R”, you’ll find yourself experiencing the elaborate procedures that humankind have invented to make a soulless machine draw a picture for itself.

“R” is a giant wooden kinetic sculpture made of thousands of hand-carved components. It constructs an image with thousands of black and white ping pong balls in respect for humankind’s endless efforts from Altamira cave’s drawings to splendid images on light emitting diode matrix displays.

It is a shelter from the furious competition of high-tech inventions trying to create revolutionary devices worldwide. It makes you turn around and have a time to look back and reminisce about the meaning of creating devices that create images.

The piece works in two modes. In passive mode it constructs ready-made images by stacking up black and white ping pong balls in predefined orders. In interactive mode, the piece detects human activity nearby itself and drops ping pong accordingly. As time goes by, like bones of dinosaurs in stratum, spread dots of black ping pong balls accumulates leaving traces of visitors that passed by.


Dye-sensitized solar cells (DSSCs) are considered a suitable photovoltaic system for urban applications and highly bendable DSSCs can be expanded to applications such as dispensable DSSCs for commercial advertising and small portable power sources.

However, although many reports have shown flexible or highly bendable photoelectrodes using TCO-coated polymeric substrates or metal meshes, until now, few have shown highly bendable DSSCs using electrodes because the flexibility of a single electrode is not a critical issue for highly bendable DSSCs.

Here, we report a new DSSC design, inspired by the traditional Korean door structure consisting of a paper-bonded wooden frame, and a process for TCO-free highly bendable DSSCs utilizing glass paper and metal mesh. In the new DSSC design, constituents such as stainless steel mesh and mesoporous TiO2 loaded with a Ru-complex dye were bonded on the glass paper, which was sputter-coated with Pt on one side and filled with electrolyte.

The glass-paper-based flexible DSSCs showed 2% energy-conversion efficiency, which was maintained under bending until the radius of curvature reached 2 cm. The new glass-paper-based flexible DSSCs may have potential applications as low-cost highly bendable solar cells to overcome the limitations of conventional sandwich-type DSSCs.

Korean researchers have developed “paper solar cell,” applying the structure of traditional Korean pattern of wood framed door and hanji paper concept. It is considered the breakthrough technology that can push the solar voltaic industry a notch upward to explore a new market of solar cell, drawing attention from scientific circles at home and abroad. 

The research team led by Dr. Lee (Lee Dong-yoon and Cha Seung-il) at Korea Electrotechnology Research Institute made the announcement on the 28th that they have combined nano and fiber technologies to come up with light and flexible but low priced dye-sensitized solar cell. It has the durability and permeability with distinctive traditional Korean pattern but overcomes the limit of thin film solar cell which cannot be folded. Therefore, it doesn’t need to have the land to install the solar panels or abide by the strict environmental regulations, or be threatened by Chinese “price war.”

It has also gone a step further from the previously “flexible” solar cell which also had its limit in flexibility due to its base material. The new paper solar cell is expected to be applied in mobile devices or exteriors of buildings, or can be worn or detachable in clothes, opening a new chapter of solar cells.

Unlike the previous dye-sensitized solar cell, new type of paper solar cell uses longer fiber type of nano titania to make traditional hanji like paper which is very flexible and durable. To eradicate plastic substrate, they had also developed conductible metal mesh with the pattern of Korean wood framed door. Finally they attached glass paper to maintain the strength of the solar cell and to fixate electrode liquid.

When it is mass produced, the price of paper solar cell will be less than half of the current Si solar cell but the efficiency level will reach 5%, far beyond the commercialization level of 3%.


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