Abstract:
User interface having a sensor and a composite interface that floats. Embodiments of user interfaces described herein are useful, for example, as automobile components (e.g., dashboard components), appliance components (e.g., dishwasher components, stove components, oven components, microwave oven components, clothes washer components, and clothes dyer components), medical equipment, elevator buttons, laboratory equipment (e.g., scales), as well as consumer electronics (e.g., entertainment devices and cell phones), automatic teller machines, and the like.
Abstract:
To provide a position detection system, a position detection method, an angle detection method, and a marker that enable detection of a position, adjustment of a position, detection of an angle, and the like of a movable body with respect to a stationary body to be easily performed. Means for solving problem: A position detection system is a position detection system for detecting a position of a movable body moving with respect to a stationary body, the position detection system including a light source provided in one of the stationary body and the movable body, an imaging unit provided in one of the stationary body and the movable body, a marker provided in the other of the stationary body and the movable body, and a position detecting unit configured to detect a position of the movable body with respect to the stationary body based on luminance of an image of the marker acquired by the imaging unit, wherein the marker includes a reflective layer, and a light control layer provided in the reflective layer, and the light control layer transmits light having an angle of incidence with respect to the main surface being within a predetermined threshold value.
Abstract:
A light-emitting element module (1) is provided with: a light-emitting element (11) that generates a light, a substrate (12) on which the light-emitting element (11) is mounted, a lens member (28) that is disposed on a mounting surface (12a) side of the substrate (12) and is at least provided with a light control unit (13), and a light absorption unit (19) that absorbs a light. The light absorption unit (19) is configured by a member disposed between the substrate (12) and the lens member (28).
Abstract:
Provided is a laminated body comprising a substrate to be ground and a support, where the substrate is ground to a very small thickness and can then be separated from the support without damaging the substrate. One embodiment of the present invention is a laminated body comprising a substrate to be ground, a joining layer in contact with the substrate to be ground, a photothermal conversion layer comprising a light absorbing agent and a heat decomposable resin, and a light transmitting support. After grinding the substrate surface which is opposite that in contact with the joining layer, the laminated body is irradiated through the light transmitting layer and the photothermal conversion layer decomposes to separate the substrate and the light transmitting support.
Abstract:
Object: To provide a detection member, an insulator, and a detection method that can previously detect narrowing of a pin of the insulator. Solving Means: A detection member according to an embodiment is a detection member 10 for detecting narrowing of a pin 8 of an insulator 5, and the detection member includes a contact portion that is in contact with the pin 8, an outer circumferential portion provided in at least a part of a circumference of the pin 8 via the contact portion, and a reflective fluorescence portion 11 provided in at least a part of the outer circumferential portion.
Abstract:
The method of printing onto a thread-like member includes: providing a pinching part between a backup roller and a printing roller having an elastic surface with a pattern; applying and smoothing ink onto the printing roller; feeding a thread-like member through the pinching part; and curing the ink retained on the thread-like member.
Abstract:
A light emitting element module comprises a light emitting element for generating a light, a substrate on which the light emitting element is mounted, a light controller disposed on a mounting surface side of the substrate to control emission of light generated by the light emitting element, a sealing section disposed on the mounting surface side of the substrate so as to surround at least the light emitting element when viewed from a vertical direction relative to the mounting surface and a pressing structure that imparts a pressing force to the sealing section. The sealing section seals a space between, at least, the substrate and the light controller, on an inner circumferential side of the sealing section by the pressing force.
Abstract:
Provided is a method for producing a semiconductor chip, comprising applying a photothermal conversion layer on a light-transmitting support, provided that upon irradiation of radiation energy, the photothermal conversion layer converts the radiation energy into heat and decomposes due to the heat; laminating the semiconductor wafer and the light-transmitting support through a photocurable adhesive by placing the circuit face and the photothermal conversion layer to face each other, thereby forming a laminated body having a non-circuit face on the outside; grinding the non-circuit face of the semiconductor wafer until the semiconductor wafer reaches a desired thickness; dicing the ground semiconductor wafer from the non-circuit face side to cut it into a plurality of semiconductor chips; irradiating radiation energy from the light-transmitting support side to decompose the photothermal conversion layer, thereby causing separation into a semiconductor chips having the adhesive layer and a light-transmitting support; and optionally removing the adhesive layer from the semiconductor chips.
Abstract:
Provided is a method for producing a semiconductor chip, comprising applying a photothermal conversion layer on a light-transmitting support, provided that upon irradiation of radiation energy, the photothermal conversion layer converts the radiation energy into heat and decomposes due to the heat; laminating the semiconductor wafer and the light-transmitting support through a photocurable adhesive by placing the circuit face and the photothermal conversion layer to face each other, thereby forming a laminated body having a non-circuit face on the outside; grinding the non-circuit face of the semiconductor wafer until the semiconductor wafer reaches a desired thickness; dicing the ground semiconductor wafer from the non-circuit face side to cut it into a plurality of semiconductor chips; irradiating radiation energy from the light-transmitting support side to decompose the photothermal conversion layer, thereby causing separation into a semiconductor chips having the adhesive layer and a light-transmitting support; and optionally removing the adhesive layer from the semiconductor chips.