Abstract: A thermoelectric device (1) comprising a frame (2), a membrane (3) made of thermoelectric material, and an element (4) for absorbing or releasing energy. The element (4) is supported to the frame (2) solely by the membrane (3).

Abstract: A blank suitable for use as a body of a supercapacitor comprises a first porous semiconductor volume and a second porous semiconductor volume, the second porous semiconductor volume laterally surrounded by the first porous semiconductor volume and separated from it by a trench that is suitable for receiving an electrolyte, whereby the first and second porous semiconductor volume comprise channels opening to the trench. A supercapacitor comprises a body formed by using the blank according to any one of the preceding claims, so that the first porous semiconductor volume acts as one electrode and the second porous semiconductor volume acts as another electrode, with an electrolyte in the trench.

Abstract: A thermoelectric device (1) comprising a frame (2), a membrane (3) made of thermoelectric material, and an element (4) for absorbing or releasing energy. The element (4) is supported to the frame (2) solely by the membrane (3).

Abstract: A blank suitable for use as a body of a supercapacitor comprises a first porous semiconductor volume and a second porous semiconductor volume, the second porous semiconductor volume laterally surrounded by the first porous semiconductor volume and separated from it by a trench that is suitable for receiving an electrolyte, whereby the first and second porous semiconductor volume comprise channels opening to the trench. A supercapacitor comprises a body formed by using the blank according to any one of the preceding claims, so that the first porous semiconductor volume acts as one electrode and the second porous semiconductor volume acts as another electrode, with an electrolyte in the trench.

Abstract: An integrable electrochemical capacitor and methods for manufacturing the same are disclosed. The electrochemical capacitor comprises a first electrode comprising a first rigid piece having a first porous portion, a second electrode comprising a second rigid piece having a second porous portion, and an electrolyte in contact with the first porous portion and the second porous portion. The structure allows the electrochemical capacitor to be manufactured without a separator film between the electrodes and is compatible with semiconductor manufacturing technologies. The electrochemical capacitor can also be manufactured within a SOI layer 8.

Abstract: This document describes graphene-containing platelets and methods of exfoliating graphene from a surface. The method comprises facilitating exfoliation by treatment with proteins. In an embodiment, the proteins adhere to the surface of graphene and then the produced platelets may contain a graphene layer and a protein layer on the surface of the graphene layer. Electronic devices containing such platelets are also described.

Abstract: An integrable electrochemical capacitor and methods for manufacturing the same are disclosed. The electrochemical capacitor comprises a first electrode comprising a first rigid piece having a first porous portion, a second electrode comprising a second rigid piece having a second porous portion, and an electrolyte in contact with the first porous portion and the second porous portion. The structure allows the electrochemical capacitor to be manufactured without a separator film between the electrodes and is compatible with semiconductor manufacturing technologies. The electrochemical capacitor can also be manufactured within a SOI layer 8.

Abstract: This document describes a method of producing an electronic device comprising biological and electrical materials and an interface between the biological and electrical materials. The method utilizes self-assembly of proteins (11) at a desired location when producing the electronic device. The document also describes electronic devices that include a protein layer as a structural part thereof. The protein layers of the electronic devices containing hydrophobin proteins are also presented. According to some embodiment, the electronic devices also include a layer of graphene (12) in contact with the proteins (11).

Abstract: The present invention relates to fabrication of graphene structures having a predefined pattern. The invention provides a new method that comprises obtaining a body of highly oriented graphite (61) and patterning at least a surface layer of the body by removing the substance of the body outside the predefined pattern. Thereafter, the method comprises stamping a graphene structure (65) on the substrate (62) by pressing the patterned surface layer of the body (61) against the substrate (62). The invention provides also a stamp for the fabrication method.

Abstract: The present invention relates to a method of forming an ordered structure of nanoparticles or microparticles in a well utilizing capillary action. We have discovered that it is possible to achieve capillary transport of particles also by means of uncovered capillary channels that abut on a controlled atmosphere and provided a method of forming an ordered structure of particles in a well by bringing the particles into the well through a capillary channel that is partly defined by a controlled atmosphere.