Abstract: An apparatus comprising: a deformable antenna configured to operate in a first physical configuration and configured to operate in a second physical configuration that is deformed relative to the first physical configuration; and magnetic material located in close proximity to the deformable antenna and configured to have a first physical configuration when the deformable antenna is in its first physical configuration and configured to have a second physical configuration that is deformed relative to the first physical configuration when the deformable antenna is in its second physical configuration, wherein the magnetic material when in its first physical configuration has a first magnetic permeability and when in its second physical configuration has a second magnetic permeability.

Abstract: An apparatus comprising: a deformable antenna configured to operate in a first physical configuration and configured to operate in a second physical configuration that is deformed relative to the first physical configuration; and magnetic material located in close proximity to the deformable antenna and configured to have a first physical configuration when the deformable antenna is in its first physical configuration and configured to have a second physical configuration that is deformed relative to the first physical configuration when the deformable antenna is in its second physical configuration, wherein the magnetic material when in its first physical configuration has a first magnetic permeability and when in its second physical configuration has a second magnetic permeability.

Abstract: A method, a computer program and a computer program product for interacting with a device via an interaction unit, wherein the interaction unit comprises a plurality of interaction areas that can be activated by an activation unit to effect the interaction, the method comprising detecting approached interaction areas, wherein the approached interaction areas are interaction areas that are approached by the activation unit without yet being activated; displaying representations of the approached interaction areas on a display of the device. The invention further relates to the device itself and to a module for such a device.

Abstract: A method includes executing a gesture with a user-manipulated physical object in the vicinity of a device; generating data that is descriptive of the presence of the user-manipulated object when executing the gesture; and interpreting the data as pertaining to at least one object, such as an object displayed by the device.

Abstract: A method includes executing a gesture with a user-manipulated physical object in the vicinity of a device; generating data that is descriptive of the presence of the user-manipulated object when executing the gesture; and interpreting the data as pertaining to at least one object, such as an object displayed by the device.

Abstract: The invention relates to a method for enhancing an antenna performance, wherein the property of the antenna substrate is modified by using an ultrasonic field. The invention also relates to an antenna comprising the modified antenna substrate, and to an apparatus comprising the modified antenna substrate.

Abstract: The invention relates to a method for enhancing an antenna performance, wherein the property of the antenna substrate is modified by using an ultra-sonic field. The invention also relates to an antenna comprising the modified antenna substrate, and to an apparatus comprising the modified antenna substrate.

Abstract: A method includes executing a gesture with a user-manipulated physical object in the vicinity of a device; generating data that is descriptive of the presence of the user-manipulated object when executing the gesture; and interpreting the data as pertaining to at least one object, such as an object displayed by the device.

Abstract: A method, a computer program and a computer program product for interacting with a device via an interaction unit, wherein the interaction unit comprises a plurality of interaction areas that can be activated by an activation unit to effect the interaction, the method comprising detecting approached interaction areas, wherein the approached interaction areas are interaction areas that are approached by the activation unit without yet being activated; displaying representations of the approached interaction areas on a display of the device. The invention further relates to the device itself and to a module for such a device.

Abstract: The invention relates to a device for removing heat from an electronic component mounted on a circuit board. The device uses a working fluid circulated through cooling elements which are integrated into a metal matrix composite structure. The cooling elements are positioned and arranged within the structure to efficiently manage heat dissipation by evacuating the heat from the component in a multi-directional manner.

Abstract: The cover or keyboard of an electronic device or a portable mobile station is coated or mixed to include liquid crystals changing color with changes of temperature, or thermochromic liquid crystals (TLC). Thermochromic liquid crystals can be used to implement reversible or irreversible color changes on several different color change temperature ranges. The cover (C) changes its color when changing temperature forming patterns (A1) following heat gradients, in its TLC-comprising parts. The color change indicates both heat applied externally to the mobile station and the heating caused by the internal energy consumption of the mobile station.

Abstract: The invention relates to a method of installing a heat source on a micro heat pipe module and to a micro heat pipe module. The micro heat pipe module (1) has micro heat pipes (3) for dissipating the thermal energy generated by the heat source (2) generating thermal energy, and the micro heat pipe module (1) has a side (4) on which the heat source (2) generating thermal energy is installed. The side (4) of the micro heat pipe module (1), on which the heat source (2) generating thermal energy is installed, is coated with a coating (5) made of a heat conducting material, which coating (5) is arranged to conduct the heat generated by the heat source (2) generating thermal energy away from the heat source (2) generating thermal energy along said side (4) of the micro heat pipe module (1) and to the micro heat pipe module (1).

Abstract: The invention relates to an arrangement for dissipating thermal energy generated by a heat source (1), which arrangement comprises a heat conductor element (2) for conducting thermal energy generated by the heat source (1) away from the heat source (1), the heat conductor element (2) having at least one micro heat pipe module (3) attached to it for distributing thermal energy generated by the heat source (1) in the heat conductor element (2). The heat source (1) is attached to an element (4) which is made of a heat conducting material and which is in thermal contact with the heat conductor element (2) and which is arranged to conduct thermal energy from the heat source (1) to the heat conductor element (2) by means of the heat conducting ability of said heat conducting material.

Abstract: The invention relates to a cooling apparatus (10) based on heat energy bound to working fluid in phase transition, the cooling apparatus comprising, for conducting elsewhere the heat energy generated by an electronic component (7), elongated cooling elements (1; 6a, 6b; 9a-9f) containing working fluid and extending in at least two different directions forming a matrix of cooling elements, and a heat conducting material (8; 15) binding the matrix of the cooling elements. The cooling elements (6a, 6b; 9a-9f) are arranged parallel to a circuit board level (A) and in at least one direction deviating from the circuit board level (A).