Abstract:
There is provided a method of manufacturing an image sensor unit, the image sensor unit including: a linear light source that illuminates a document along a main scanning direction; a rod lens array that includes a plurality of rod lenses arranged in the main scanning direction and condenses a light reflected from the document; and a linear image sensor that receives a light condensed by the rod lens array. When a rod lens having an optically discontinuous portion on a surface and/or interior of the rod lens is included, the rod lens array is arranged such that the optically discontinuous portion is not located toward the document.
Abstract:
A light guide inserted into an inclined groove is disposed so as to partially overlap with a lens unit that is fitted into a concave groove disposed parallel to the inclined groove when seen in a plan view, to regulate the separation of the lens unit from the concave groove and hold the lens unit in an insertion state by the light guide. Therefore, a fixing unit such as an adhesive agent is not required in fixedly disposing the light guide and the lens unit at a predetermined position of a frame, and a CIS module is assembled without using an adhesive agent, thereby allowing the CIS module that is easily disassembled when being discarded and that improves recycling efficiency to be provided.
Abstract:
An image reading apparatus includes a housing, a rod lens array, a light module and a sensor board. The housing accommodates the rod lens array, the light module and the sensor board. The sensor board includes a plurality of light sensor chips. The light module includes a light guide, a light source and guide terminals extending from the light source. The guide terminals are electrically connected to the sensor board with resilient contacts.
Abstract:
A modularized light-guiding apparatus and manufacturing method, which may make the light of a light source proceed at least twice light reflections of predetermined directions. The light-guiding apparatus includes a plurality of modularized reflection elements, which may be differentiated to several different types of reflection element. Each type of each reflection element all has substantially same adjoining device and edge size for providing to be adjoined and piled-up with another reflection element. But, the reflection element of different type individually has different number of reflection plane for providing the light to proceed different times of light reflection. It may determined the light reflection times and light-path length for the light-guiding apparatus, by choosing several different types of reflection element among plural reflection elements to proceed the piling-up for the light-guiding apparatus.
Abstract:
An image reading apparatus includes a housing, a rod lens array, a light module and a sensor board. The housing accommodates the rod lens array, the light module and the sensor board. The sensor board includes a plurality of light sensor chips. The light module includes a light guide, a light source and guide terminals extending from the light source. The guide terminals are electrically connected to the sensor board with resilient contacts.
Abstract:
A semiconductor device includes a semiconductor chip with a functional surface, a substrate opposing the functional surface of the semiconductor chip at a space formed between the substrate and the functional surface, a power supplying device electrically connected to a part of the functional surface of the semiconductor chip and separated by a slight gap from the substrate, a fixing member that fixes the semiconductor chip to the substrate, and a sealing member that seals the space formed between the substrate and the functional surface of the semiconductor chip other than a space formed between the substrate and the functional surface of the semiconductor chip that are fixed to each other through the fixing member and other than the gap formed between the power supplying device and the substrate. The sealing member has greater elasticity than the fixing member.
Abstract:
A semiconductor device includes a semiconductor chip with a functional surface, a substrate opposing the functional surface of the semiconductor chip at a space formed between the substrate and the functional surface, a power supplying device electrically connected to a part of the functional surface of the semiconductor chip and separated by a slight gap from the substrate, a fixing member that fixes the semiconductor chip to the substrate, and a sealing member that seals the space formed between the substrate and the functional surface of the semiconductor chip other than a space formed between the substrate and the functional surface of the semiconductor chip that are fixed to each other through the fixing member and other than the gap formed between the power supplying device and the substrate. The sealing member has greater elasticity than the fixing member.
Abstract:
A sensor frame for an image sensor is manufactured in the step of forming a sensor frame for an image sensor by extrusion molding so that a frame support portion for supporting the frame is formed above a lens array holding portion, and the step of removing the thus-formed sensor frame support portion by machining while leaving parts of the support portion located at the longitudinally corresponding to the upper ends of the lens array holding portion. Accordingly, machined surfaces subjected to the machining exist outside the hollow space where the sensor ICs are located.
Abstract:
A sensor chip, an image reading sensor and an electronic device, which are capable of preventing poor image readings, are provided. The sensor chip is constructed such that the image reading sensor is constituted by mounting a plurality of sensor chips on a sensor substrate, and is provided with a notch at a lower corner of an end portion which faces with other sensor chip. The image reading sensor is constituted by mounting a plurality of sensor chips on a sensor substrate, and each sensor chip is provided with a notch at a lower corner of the end portion which faces other sensor chip. The electronic device contains the image reading sensor, which is constituted by mounting a plurality of sensor chips on a sensor substrate, and each sensor chip is provided with a notch at a lower corner of the end portion which faces other sensor chip.
Abstract:
An image sensor has a frame including a reading window formed therein at the top of the frame. The reading window is closed by a glass covering which is adhered to the frame through an adhesive. First and second grooves are provided in the frame to extend along the reading window. After the adhesive has been charged into the first groove, the glass covering is placed and pressed against the frame top so that the glass covering will be adhered to the frame top through the adhesive. At this time, any excess adhesive may be received and held by the second groove.