Abstract: The electronic device comprises a data processing facility, a flexible panel, and a facility for arranging the panel at least into an extended shape and into a compact shape. The flexible panel includes a display structure responsive to output signals from the data processing facility, a touch sensitive structure arranged for providing input signals to the data processing facility indicative for a change of capacitance at a position where a pointing device approaches the panel.

Abstract: There is disclosed a lithographic apparatus provided with a spectral purity filter which may be provided in one or more of the following locations: (a) in the illumination system, (b) adjacent the patterning device, either a static location in the radiation beam or fixed for movement with the patterning device, (c) in the projection system, and (d) adjacent the substrate table. The spectral purity filter is preferably a membrane formed of polysilicon, a multilayer material, a carbon nanotube material or graphene. The membrane may be provided with a protective capping layer, and/or a thin metal transparent layer.

Abstract: In an EUV (extreme ultraviolet) lithography apparatus, an illumination system includes a multifaceted field mirror and a multifaceted pupil mirror. A field facet mirror within mirror focuses EUV radiation onto a particular associated pupil facet mirror, from where it is directed to a target area. Each field facet mirror is modified to scatter unwanted DUV (deep ultraviolet) radiation into a range of directions. The majority of DUV falls onto neighboring pupil facet mirrors within the pupil mirrors, so that the amount of DUV radiation reaching target E is suppressed in comparison to the wanted EUV radiation. Because the distance between mirrors is much greater than the width of an individual pupil facet mirror, good DUV suppression can be achieved with only a narrow scattering angle. Absorption of EUV radiation in the scattering layer can be minimized.

Abstract: A method of manufacturing an electric component disclosed. A first electrically conducting layer including a first electrode of the electric component is formed on a substrate. An interlayer of a dielectric material is formed on the first electrically conducting layer, the dielectric material including an electrically insulating material. A further layer of a dielectric material is deposited on the interlayer of dielectric material, the further layer including a photo-patternable electrically insulating material. Both the further layer and said interlayer are structured, wherein the further layer of the dielectric material is used as a mask for the interlayer. A second electrically conducting layer including a second electrode of the electric component is then formed.

Abstract: The electronic device comprises a data processing facility, a flexible panel, and a facility for arranging the panel at least into an extended shape and into a compact shape. The flexible panel includes a display structure responsive to output signals from the data processing facility, a touch sensitive structure arranged for providing input signals to the data processing facility indicative for a change of capacitance at a position where a pointing device approaches the panel.

Abstract: The electronic device comprises a data processing facility (8), a flexible panel (3), and a facility (4,5) for arranging the panel at least into an extended shape (FIG. 1A) and into a compact shape (FIG. 1B). The flexible panel includes—a display structure (20) responsive to output signals (Sout) from the data processing facility (8), —a touch sensitive structure (22) arranged for providing input signals 10 (Sin) to the data processing facility (8) indicative for a change of capacitance at a position where a pointing device approaches the panel (3).

Abstract: There is disclosed a lithographic apparatus provided with a spectral purity filter which may be provided in one or more of the following locations: (a) in the illumination system, (b) adjacent the patterning device, either a static location in the radiation beam or fixed for movement with the patterning device, (c) in the projection system, and (d) adjacent the substrate table. The spectral purity filter is preferably a membrane formed of polysilicon, a multilayer material, a carbon nanotube material or graphene. The membrane may be provided with a protective capping layer, and/or a thin metal transparent layer.

Abstract: According to one aspect, the invention provides a device with a flexible display screen. The flexible display screen is rollable around an axis between a rolled-up state and an unrolled state. For stiffening the screen, stiffening elements are attached to the flexible display screen. The stiffening elements are compressible. They are compressed when the display screen is in a rolled-up state, so as to decrease the size of the rolled-up display device. Therefore, the invention strengthens the display, while at the same time retains a reasonable size of the display in the rolled-up state.

Abstract: The invention relates to a flexible display comprising a first flexible layer configured to comprise pixels 5 of the flexible display, a second flexible layer superposed on the first flexible layer, which second flexible layer comprises a color filter with a plurality of color elements 1, 2, 3, 4 associated with said pixels, wherein the pixels comprise color sub-pixels 1a, 2a, 3a, 4a, the color elements and/or color sub-pixels being discontinuously arranged to counteract misalignment between respective color sub-pixels and color elements. The color elements 1, 2, 3, 4 are arranged to substantially overlap respective sub-pixels 1a, 2a, 3a, 4a whereby the buffer zones 6a, 6b, 6c, 6d are arranged to overlap a portion of said sub-pixels as well. The invention further relates to a method of manufacturing a flexible display.

Abstract: A semiconductor device having a substrate is disclosed. The substrate includes a first set of inner edges and a second set of inner edges cooperating with the first set of inner edges. The second set of inner edges is positioned outside the first set of inner edges with respect to a cavity formed by the first inner edges and the second inner edges by a pre-defined distance. The substrate further includes a layer within the cavity, including a dried liquid material formed from a liquid deposited within the cavity. The layer within the cavity is formed between the respective first inner edges and the second inner edges. The semiconductor device may be implemented in a display of an electronic device.

Abstract: An electronic component, notably one including, for example, a TFT, a storage capacitor, or a crossing between electrically conductive layers of a stack device is disclosed. The electronic component comprises a substrate whereon a first electrically conductive layer forming electrode is provided. A second electrode formed by a second electrically conductive layer is separated from the first electrode by at least a dielectric layer, comprising an interlayer of an electrically insulating material, preferably having high resistance against electrical breakdown and a further layer of a photo-patternable electrically insulating material.

Abstract: A method is described for manufacturing a semiconductor device that comprises the steps of providing on a substrate a layer of a conducting material in a pattern comprising isolated elements having a first set of edges. The method further includes providing, on the substrate, a series of wall structures for forming one or more cavities there between. The wall structures have a second set of edges cooperating with the first set of edges. The second set of edges is positioned outside the first set of edges by a pre-defined distance. The method furthermore includes depositing a liquid material in the cavities. A display and an electronic apparatus incorporating the above described features is also disclosed.

Abstract: The invention relates to an electronic device including a sequence of a first thin film transistor (TFT) and a second TFT, the first TFT including a first set of electrodes separated by a first insulator, the second TFT comprising a second set of electrodes separated by a second insulator, wherein the first set of electrodes and the second set of electrodes are formed from a first shared conductive layer and a second shared conductive layer, the first insulator and the second insulator being formed by a shared dielectric layer. The invention further relates to a method of manufacturing an electronic device.

Abstract: A display structure is described comprising a displaying medium, a backplane provided with an active matrix and a pixel pad comprising a plurality of pixels having an inter-pixel spacing, said pixel pad superposing the active matrix, wherein the inter-pixel spacing is in the range of 2.5-40 micrometers, preferably in the range of 8-20 micrometers.

Abstract: In an EUV (extreme ultraviolet) lithography apparatus, an illumination system includes a multifaceted field mirror and a multifaceted pupil mirror. A field facet mirror within mirror focuses EUV radiation onto a particular associated pupil facet mirror, from where it is directed to a target area. Each field facet mirror is modified to scatter unwanted DUV (deep ultraviolet) radiation into a range of directions. The majority of DUV falls onto neighboring pupil facet mirrors within the pupil mirrors, so that the amount of DUV radiation reaching target E is suppressed in comparison to the wanted EUV radiation. Because the distance between mirrors is much greater than the width of an individual pupil facet mirror, good DUV suppression can be achieved with only a narrow scattering angle. Absorption of EUV radiation in the scattering layer can be minimized.

Abstract: A display structure is described comprising a displaying medium, a backplane provided with an active matrix and a pixel pad comprising a plurality of pixels having an inter-pixel spacing, said pixel pad superposing the active matrix, wherein the inter-pixel spacing is in the range of 2.5-40 micrometers, preferably in the range of 8-20 micrometers.

Abstract: A method is described for manufacturing a display. The method includes providing a display layer for displaying an image having at least a luminosity component, providing a color filter layer comprising a color filter for filtering the image according to a predetermined pattern, and removably attaching the color filter layer to the display layer. Dependent on the outcome of a test on the product provided with the removably attached color filter layer it may be decided to remove the color filter layer.

Abstract: A method is described for manufacturing a semiconductor device that comprises the steps of providing on a substrate a layer of a conducting material in a pattern comprising isolated elements having a first set of edges. The method further includes providing, on the substrate, a series of wall structures for forming one or more cavities there between. The wall structures have a second set of edges cooperating with the first set of edges. The second set of edges is positioned outside the first set of edges by a pre-defined distance. The method furthermore includes depositing a liquid material in the cavities. A display and an electronic apparatus incorporating the above described features is also disclosed.

Abstract: A transistor structure is described herein that includes a semiconductor layer and a dielectric layer. In accordance with the disclosure, at least one of the semiconductor layer and/or the dielectric layer comprises a chemical additive having a higher reaction potential for a chemical species present in an environment than a material of the semiconductor layer and/or the dielectric layer.

Abstract: The invention relates to a flexible display comprising a first flexible layer configured to comprise pixels 5 of the flexible display, a second flexible layer superposed on the first flexible layer, which second flexible layer comprises a color filter with a plurality of color elements 1, 2, 3, 4 associated with said pixels, wherein the pixels comprise color sub-pixels 1a, 2a, 3a, 4a, the color elements and/or color sub-pixels being discontinuously arranged to counteract misalignment between respective color sub-pixels and color elements. The color elements 1, 2, 3, 4 are arranged to substantially overlap respective sub-pixels 1a, 2a, 3a, 4a whereby the buffer zones 6a, 6b, 6c, 6d are arranged to overlap a portion of said sub-pixels as well. The invention further relates to a method of manufacturing a flexible display.