74results about How to "Yield easily" patented technology

A gel based laparoscopic trocar having a shaft with upper and lower portions, the shaft having an interior dimension, a rigid gel casing surrounding the upper portion of the shaft, at least two resilient gel filled membranes filling the interior dimension of the upper portion of the shaft, a plurality of petals surrounding the external portion of the lower portion of the shaft, the petals having a first condition in which the petals are elongated along the length of the shaft and a second condition in which portions of the petals are permitted to curl upward and away from the shaft, and a release mechanism associated with the petals, the release mechanism adapted to permit the petals to move from the first condition to the second condition upon actuation. The petals may include a memory metal having a natural condition relating to the second condition of the petals.

A light emitting device includes a light emitting element, a substrate with a flat mounting surface for mounting the light emitting element thereon, a sealing part for the light emitting element on the mounting surface of the substrate. The sealing part is formed of glass including a phosphor to be excited by light emitted from the light emitting element to radiate a wavelength conversion light. The sealing part is shaped like a rectangular solid wherein a lateral length is defined as a distance between a center of a bottom surface of the sealing part bonded to the mounting surface and a side face perpendicular to the mounting surface, a vertical length is defined as a distance between the mounting surface and a top surface of the sealing part, and at least one of the lateral length is longer than the vertical length. The device further includes a transparent member formed on the top surface of the sealing part. The transparent member includes the phosphor at a concentration higher than the sealing part.

The invention provides methods of enhancing moisture or reducing drying using wet skin treatment composition. These compositions are activated by water and retained efficiently on skin. Thus, the compositions (and methods used) impart desirable benefits to skin, are perceived to absorb quickly on wet skin and leave the skin feeling clean, but non-greasy.

A sensor chip and a lens mount accommodating therein the sensor chip are mounted on a surface of a wiring substrate and a lens holder accommodating a lens therein is coupled with the lens mount. On a rear surface of the wiring substrate, a logic chip, a memory chip and a passive component are mounted and they are sealed with a seal resin. An electrode pad of the sensor chip is electrically connected to an electrode on the surface of the wiring substrate via a bonding wire but a stud bump is also formed on the electrode at the surface of the wiring substrate and this stud bump is connected with the bonding wire. On the surface of the wiring substrate, a flexible substrate is bonded with an anisotropic conductive film and a bonding material. When a camera module is to be manufactured, the surface side of the wiring substrate is assembled after the rear surface side of the wiring substrate is assembled.

The invention provides wet skin treatment compositions for use during bathing. The compositions are activated by water and retained efficiently on skin. The compositions impart desirable benefits to skin, are perceived to absorb quickly on wet skin, and leave the skin feeling clean, but non-greasy.

A sensor chip and a lens mount accommodating therein the sensor chip are mounted on a surface of a wiring substrate and a lens holder accommodating a lens therein is coupled with the lens mount. On a rear surface of the wiring substrate, a logic chip, a memory chip and a passive component are mounted and they are sealed with a seal resin. An electrode pad of the sensor chip is electrically connected to an electrode on the surface of the wiring substrate via a bonding wire but a stud bump is also formed on the electrode at the surface of the wiring substrate and this stud bump is connected with the bonding wire. On the surface of the wiring substrate, a flexible substrate is bonded with an anisotropic conductive film and a bonding material. When a camera module is to be manufactured, the surface side of the wiring substrate is assembled after the rear surface side of the wiring substrate is assembled.

A method for manufacturing a display device is provided. The method includes forming a display element interposed between a first substrate and a second substrate and peeling the second substrate from the first substrate so that an electrode, which is located between the first and second substrates and to be connected to an external electrode, is exposed simultaneously with the peeling of the second substrate.

A display device with high design flexibility is provided. The display device includes a display element, a touch sensor, and a transistor between two flexible substrates. An external electrode that supplies a signal to the display element and an external electrode that supplies a signal to the touch sensor are connected from the same surface of one of the substrates.

A method for manufacturing a display device is provided. The method includes: forming, between a first substrate and a second substrate, a light-emitting element including an electroluminescence layer and a wiring over which a peeling layer formed by using the material of the electroluminescence layer is provided; and peeling whole of the second substrate from the first substrate so that the peeling layer over the wiring is simultaneously exposed.

A sputtering magnetron (300) insertable in a rotatable target is described. The magnetron is designed around a single piece, multiwalled tube (102, 202) with compartments (316, 316′, 318, 318′) extending over the length of the tube. The multiwalled tube gives a much stiffer magnetron carrier structure compared to prior art magnetrons. As a result, the magnetic field generator can be mounted inside a compartment and the distance between magnets and target surface is easily adjustable as the tube is much stiffer than the generator. Additionally, the coolant channels can be incorporated inside the tube and close to the outer wall of the tube so that coolant can be supplied in the vicinity of the magnetic field generator. The increased stiffness of the magnetron allows the target tube to be carried by the magnetron—not the other way around—at least during part of the useful life of the target. As a result thin target carrier tubes can be used as they don't have to carry the magnetron anymore resulting in a longer use of the target.

This package is made up of a sheet (1) that once having been die cut, folded and assembled, makes a prismatic rectangular shaped package that has longitudinal slots (18) for the successive extraction of the sheets of paper to roll cigarettes (21) that are stored in two or more wads of paper (2) housed on the inside of the package and supported on a reinforcing card (3) placed on the inner surface of the lower wall (14) of the package. This reinforcing card (3) has, at least two tabs (31) to retain the wads of paper (2), placed between the wads of paper (2), orientated towards the upper area, respectively inclined towards the front and rear walls of the package, and hinged on both fold lines (32) coinciding with a longitudinal X-X axis, parallel to the wads of paper (2) and the slots (18) for the extraction of the sheets of paper (21).

A holder for cards, including a housing which tightly fits around a stack of at least three cards and has at least one card opening to locate and remove cards, while opposite the card opening in the housing there is a card remove feature through which the cards through the card opening can be slid out the housing, characterized in that at the inner side of the housing near the card opening at least one side a friction element is provided which exerts a friction force to the bearing side of each individual card which is at least partly contained in the housing, with the result that the card has such a stable position relative to the housing, that the card can not slide due to gravity, but indeed due to a with the finger tips exerted force.

The present invention provides a metallic coating having a sheen and discontinuous structure and a resin product having the metallic coating by using a physical vapor deposition method at high productivity and low cost.

Disclosed is a conductive coating composition containing an organic solvent dispersion of an intrinsically conductive polymer such as a doped polyaniline or a doped polythiophene, and a binder. The conductive coating composition is characterized in that the binder contains a polymerizable monomer-dispersed silica sol, which is obtained by dispersing a colloidal silica into a polymerizable organic compound monomer. The composition provides a conductive thin film having high transparency and excellent strength.

Provided is a method for manufacturing a highly reliable display device. The method includes steps of providing a first layer, a first insulating layer, an electrode, and a second insulating layer over a first surface of a first substrate; removing a part of the second insulating layer to provide a first opening; providing a display element and a second layer over the second insulating layer; providing a third layer and a third insulating layer over a second surface of a second substrate; removing part of the third layer and part of the third insulating layer to provide a second opening; overlapping the first substrate and the second substrate with a bonding layer positioned therebetween such that the first surface and the second surface face each other and the first opening and the second opening have an overlap region; separating the first substrate and the first layer from the first insulating layer; providing a third substrate such that the first insulating layer and the third substrate overlap with each other; separating the second substrate, part of the bonding layer, part of the second layer, and the third layer from the third insulating layer; and providing a fourth substrate such that the third insulating layer and the fourth substrate overlap with each other.

The technology described herein relates to controlled chemically- or light-induced rejoinder of split-recombinases. In some embodiments, compositions, methods, kits and systems are provided that relate to a split-recombinase system, whereby protein complementation or rejoinder of split-recombinases is mediated by chemical-induced dimerization domains (CIDDs) or light-induced dimerization domains (LIDD) and rejoinder of the split-recombinases occur in the presence of one or more chemical inducers or light inducers, respectively. The split-recombinases systems as disclosed herein can be used in gene therapy, integrated logic and memory in living cells such as mammalian cells. The nucleic acid cassettes, switches, and systems described herein allow for controlled gene expression or gene regulation. The controlled chemically- or light-induced rejoinder of split-recombinases can be used in, for example, adopted T-cell therapy.

A resin composition capable of laser marking according to the present invention includes a polyolefin resin in combination with a laser-sensitive component such as a carbon black or metallic compound white pigment and a dispersing aid such as a higher fatty acid compound. The polyolefin resin includes, for example, a polypropylene. The resin composition may further include about 0.5 to 30 parts by weight of an elastomer relative to 100 parts by weight of the polyolefin resin. By irradiating an surface of a molded article obtained from the resin composition with a laser, a mark having a sharp and uniform contrast can be formed on the surface of the molded article.

A thermoplastic resin film that has an excellent heat insulating property, and a labeled plastic container produced by attaching the thermoplastic resin film by in-mold molding are provided. The film comprises at least one porous layer that satisfies the following conditions (A) and (B). (A) The porous layer includes 25 to 65 pts. mass of thermoplastic resin and 35 to 75 pts. mass of inorganic fine powders. (B) A pore length L of the porous layer as expressed by L=d×(ρ₀−ρ)/ρ₀ is 20 μm or longer. L denotes the pore length [μm] of the porous layer, d denotes a thickness [μm] of the porous layer, p denotes a density [g/cm³] of the porous layer, and ρ₀ denotes a true density [g/cm³] of the porous layer.