37results about How to "No improvement is obtained" patented technology

A system and method for additive manufacturing of otherwise thermosetting polymers, such as PAI, is disclosed. The system includes fast-curing hardware that facilitates curing each deposited layer before a successive layer is deposited. This reduces the time to provide a finished part from weeks to hours.

In at least one embodiment, a TFT includes: a first capacitor formed of a first capacitor electrode connected to a source electrode and a second capacitor electrode; a second capacitor formed of a third capacitor electrode and a fourth capacitor electrode; a first lead-out line; a second lead-out line connected to a gate electrode; a third lead-out line; a fourth lead-out line; a first interconnection; and a second interconnection. This realizes a TFT which can be easily saved from being a defective product even if leakage occurs in a capacitor connected to a TFT body section.

A semiconductor device manufacturing method includes etching a silicon on insulator (SOI) from its surface (i.e., semiconductor substrate layer) to form a first trench and a second trench. The first trench extends through the SOI substrate and reaches an electrode pad. The second trench terminates in the semiconductor substrate layer. The manufacturing method also includes forming an insulation film that covers the surface of the semiconductor substrate layer as well as the side walls and bottoms of the first and second trenches. The manufacturing method also includes removing the insulation film from the bottoms of the first and second trenches to expose the electrode pad from the first trench bottom and to expose the semiconductor substrate layer from the second trench bottom. The manufacturing method also includes forming a conductive film that covers the semiconductor substrate layer and the side walls and the bottoms of the first and second trenches to form a through via electrically connected to the electrode pad at the first trench bottom and to form a contact part electrically connected to the semiconductor substrate layer at the second trench bottom. The manufacturing method also includes patterning the conductive film on the semiconductor substrate layer to form the external electrodes and to form a potential fixing external electrode electrically connected to the contact part.

A supersonic aircraft design using compression lift for enhanced cruise performance. Each engine nacelle at mid-span has a vertical wedge at the nose which creates shock waves under the wings. The increased pressure behind the shock waves pushes up on the wings, creating compression lift. The second part of the process is trapping the shocks by some vertical surfaces. The inboard shocks are intercepted by a keel under the fuselage. This causes the reflected shock effect, which increases compression lift. The keel is just wide enough to store the main landing gear's wheel bogies one behind the other. One strut carrying a wheel bogie retracts upward and forward. The other strut retracts upward and backward. This allows tandem bogie storage in the narrow keel, which reduces drag. Outboard shocks are trapped by wingtip fins with pointed noses to reduce shock interference at the point of shock trapping.

To provide a float glass for a display substrate, of which the high temperature viscosity is low, without impairing properties for a substrate glass for a display.

A float glass for a display substrate, characterized in that its composition consists essentially of, as represented by mass % based on oxide, from 52 to 62% of SiO₂, from 5 to 15% of Al₂O₃, from more than 0% to 9% of MgO, from 3 to 12% of CaO, from 9 to 18% of SrO, from 0 to 13% of BaO, from 25 to 30% of MgO+CaO+SrO+BaO, from 6 to 14% of Na₂O+K₂O+Li₂O, from 0 to 6% of ZrO₂ and from 0 to 1% of SO₃, the temperature of glass melt corresponding to the viscosity of 10² dPa·s is at most 1,520° C., the temperature of glass melt corresponding to the viscosity of 10⁴ dPa·s is at most 1,120° C., the glass transition temperature is at least 610° C., and the specific gravity is at most 2.9.

An improved heterostructure for an optoelectronic device is provided. The heterostructure includes an active region, an electron blocking layer, and a p-type contact layer. The p-type contact layer and electron blocking layer can be doped with a p-type dopant. The dopant concentration for the electron blocking layer can be at most ten percent the dopant concentration of the p-type contact layer. A method of designing such a heterostructure is also described.

A motor includes a stator having a winding, and a rotor. The rotor rotates by receiving a rotational magnetic field generated by drive current supplied to the winding. The winding includes a first winding and a second winding, the first and second windings both being excited at the same timing by the drive current. The first winding and the second winding are connected in series. The rotor includes a first pole section and a second pole section. The second pole section faces the second winding at the rotation position of the rotor at which the first pole section faces the first winding. The magnetic force exerted on the stator by the second pole section is weaker than that exerted by the first pole section.

Using at least one compound selected from the group consisting of a zirconyl compound and a zirconium alcoholate as an allophanation catalyst, an allophanate group-containing polyisocyanate composition is produced from a starting material of at least one isocyanate compound selected from the group consisting of an aliphatic diisocyanate, an alicyclic diisocyanate and an isocyanate pre-polymer obtained therefrom, and another starting material of a hydroxyl group-containing compound.

In a filter device 10 constituted by circuit elements formed on a single substrate 11, the circuit elements includes a first wing section 14 formed between an input signal electrode 12 and an output signal electrode 13, first resonators 15a, 15b, 15c located in the first wiring section 14 and having a predetermined resonance frequency, second wiring sections 17a, 17b, 17c, 17d formed between the first wiring section 14 and a ground electrode 16, second resonators 18a, 18b, 18c, 18d located in the second wiring sections 17a, 17b, 17c, 17d and having an anti-resonance frequency forming a pass-band with the predetermined resonance frequency of the first resonators 15a, 15b, 15c. An effective electric and mechanical coupling factor of the second resonator 18a is different from those of the other resonators 15a, 15b, 15c, 18b, 18c, 18d.

An inductor element includes a resin substrate which is an insulating substrate including conductor patterns, and coils defined by the conductor patterns. Two coils are arranged on the same plane, and connected in series. Adjacent coils define a closed magnetic circuit. That is, the winding direction and the connection of the coils are determined such that magnetic flux that interlinks coils that are adjacent in the planar direction define a loop. There are also provided an inductor bridge and a high-frequency filter that include the inductor element.

A display system in accordance with embodiments of the present invention comprises illumination means (108) for providing a light beam; at least one colour channel (R, G, B), each colour channel being adapted for providing at least part of the light beam to a spatial light modulator panel (39) comprising at least a first and a second zone; the spatial light modulator panel (39) being for selectively modulating an impinging beam of light to form an image light beam. The display system further comprises splitting means (37) for splitting the at least part of the light beam so that a split light beam is provided on the spatial light modulator panel (39), the split light beam comprising at least a first and a second sub-beam, and driving means (408) for driving the first and second sub-beams such that the first sub-beam scrolls over the first zone and the second sub-beam scrolls over the second zone.

The present invention also provides a corresponding method.

An object of the present invention is to provide an atomic force microscope apparatus allowing tracking errors to be made as close to zero as possible to reduce images obtained through high-speed scanning from being degraded. To accomplish the object of the present invention, the present invention provides an atomic force microscope apparatus imaging a surface topography of a sample in a contact mode, the apparatus including a cantilever having a probe interacting with the sample surface via an atomic force and being subjected to a deflection by the atomic force, laser light provision means for allowing first laser light to enter the cantilever, light detection means, a controller estimating the surface topography of the sample surface, and data storage means for recording the estimated surface topography.

The preparation holding device of a microtome can be pivoted via a ball head. To pivot the preparation holding device, actuators are assigned to the latter as drives. A camera and laser diodes are arranged on the knife carrier of the microtome to detect the shape and positions of the preparation.

Polycrystalline silicon fragments obtained by fracturing polycrystalline silicon blocks wherein a content ratio of polycrystalline silicon powder having a particle size of 500 to 1000 μm is 0.1 to 40 ppmw.