Acreo Ab

Acreo Swedish Ict Ab

Oboe Ipr Ab

Lunalec Ab

Lunamicro Ab

Nathaniel D Robinson

Magnus Berggren

David A Nilsson

Joakim Isaksson

Payman Tehrani

Göran Gustafsson

Mats Robertsson

Mats Sandberg

Peter Andersson Ersman

Staffan Nordlinder

Ludvig Edman

Petronella Norberg

Xavier Crispin

Oscar Larsson

Piotr Matyba

Peter Kjäll

Agneta Richter Dahlfors

Payman Therani

Rune Groppfeldt

Lars Herlogsson

Olle-Johnny Hagel

Per Erlandsson

Per-Olof Svensson

David Nilsson

Berggren Magnus

An electrokinetic fluidic system () for controlling liquid flow in e.g. a lab-on-a-chip system () comprising a first and a second electrode (') said first and second electrode comprising a polymer based or oxide based conductive, electrochemically active electrode material, said electrode material being adapted to be subjected to an electrochemical reaction when in use in said electrokinetic fluid system ().

Electrokinetic fluidic system

A light-emitting device is provided having an anode, a cathode, and a light-emitting material contacting and separating the cathode and anode. Wherein the cathode includes a graphene and/or graphene oxide.

Light-emitting electrochemical device, a system comprising such a device and use of such a device

An embodiment of the present invention relates to electrochemical devices including an electrochemically active layer having the ability of electrochemically altering its redox state. By providing a portion of an electrode of corrosion resistant material between an electrolyte and an electrochemically active layer, undesired discoloration due to the electrochemical reaction of an electrochemical device is reduced.

Electrochemical device

The present invention relates to a wettability switch that comprises an electrochemically active element having a wetting surface with switchable wetting properties. The electrochemically active element comprises an electrochemically active polymer, and surface active molecules each having a lyophobic portion and a lyophilic portion. In the wettability switch, each of said surface active molecules exposes one of said lyophobic portion and said lyophilic portion towards said wetting surface, and the identity of said portion depends on an electrochemical state of said polymer.

Wettability switch

A device is disclosed for electrically controlled transport of ions between a source and a target electrolyte, including a source electrode and a target electrode. The electrodes are each capable of conducting ions, and the source electrode is arranged to receive ions from the source electrolyte and the target electrode is arranged to release ions to the target electrolyte. The device further includes an ion-conductive channel, arranged to receive ions from the source electrode and to release ions to the target electrode. Moreover, the ion-conductive channel is arranged to provide an ionic connection between the source and the target electrodes. The electrodes and the ion-conductive channel are formed of solid or semi-solid materials which are directly or indirectly attached to a support. In at least one embodiment, the device also includes a device for limiting an electronic current between the source and the target electrodes, such that at least after a voltage is applied across the channel a potential difference between the source and target electrodes is maintained, which potential difference effects ion transport from said source to the target electrode. An apparatus for transporting ions to or from a cell, use of the device for transporting ions to or from a cell, and methods of operating the device are also disclosed.

Electrically controlled ion transport device

A method for monitoring a substrate patterning process, where at least two electrodes are used to apply a voltage to the substrate to cause a reaction in a portion of the substrate, that includes recording a current driven by said voltage as a function of time and/or as a function of a position of the substrate or a patterning mask. Also disclosed are a device and a computer program product for monitoring the substrate patterning process.

Method of monitoring a substrate patterning process

A device for integrating and indicating a parameter over, comprising: a first electrode (), a second electrode (), an electrolyte (), which is in contact with the first electrode and in consuming contact with a consumption portion () of the second electrode, at least two indicators (I, I, I), which are connected to the consumption portion () at a respective connecting point (P, P, P). The electrolyte () and the consumption portion () are selected such that when a voltage is applied over the electrodes (), the consumption portion () is consumed at a predetermined rate, wherein the indicators (I, I, I) are arranged to switch states in response to a consumption frontier (F, F) of the consumption portion reaching or passing a connecting point (P, P, P) associated with the respective indicator (I, I, I), wherein at least one of the indicators is a binary (on/off) indicator.

Device for integrating and indicating a parameter over time

A device for determining a parameter history indication of at least one external parameter includes, in at least one embodiment, a first electrode portion, in consuming contact with a first electrolyte, and a second electrode portion, in consuming contact with a second electrolyte. A consumption process of the second electrode portion, in at least one embodiment, is controllable by an amount of consumption of said first electrode portion. The electrolytes are so arranged that consumption rates of the first electrode portion and the second electrode portion present different dependencies on the at least one external parameter. A kit of parts including such a device, and a method for determining a parameter history indication of at least one external parameter are also disclosed.

Device, kit and method for monitoring a parameter history

A fast organic field effect transistor (), which operates at low voltages, is achieved by the introduction of an oligomeric or polymeric electrolyte () between the gate electrode () and the organic semiconductor layer (), which electrolyte () has a dissociation constant of at least 10&#x2212;8. Said organic semiconductor layer () is in contact with the source electrode () and the drain electrode () of the transistor. In operation a potential () applied to said gate electrode () controls the current A between said source electrode () and said drain electrode ().

Transistor with large ion-complexes in electrolyte layer

The present invention provides an electrochemical timer device () having a source () and a drain () contact. The device further comprises a switch channel () and a delay reservoir () that are electrochemically interconnected with a gate electrode (). The switch channel () interconnects the source () and drain () contacts and is arranged to change electrical conductivity upon electrochemistry therein, and an electrochemical reaction is arranged to occur in the gate electrode () and delay reservoir () upon application of a drive voltage there between. The delay reservoir () is arranged such that the electrochemical reaction occurring therein gradually moves towards the switch channel () and eventually reaches the switch channel () after a delay time thereby changing the electrical conductivity of the switch channel ().

Timer switch

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Kolmården, Sweden

Nathaniel D Robinson