Abstract: A solid-state image sensor, a transparent cover, a DSP, a wiring board and the like are sealed in a sealing portion by molding of a synthetic resin, and fixed to an imaging unit. At this time, a portion of the transparent cover is exposed from the sealing portion. The optical path fixing device and the imaging unit sealed by the sealing portion are fixedly combined by engagement of hook engaging portions and hook portions, in a state where the lower end surface of a lens barrel comes into contact with the exposed portion. As the result, positioning accuracy of a lens with respect to a pixel area of the solid-state image sensor dose not deteriorate even if a substrate on which the solid-state image sensor is arranged is deflected or distorted.

Abstract: A bond portion for bonding the principal plane of a solid-state imaging element with a transparent covering portion and configuring a hollow portion therebetween is provided with: a first opening end portion on the hollow portion side; a second opening end portion on the outer side; and a trap portion. The first opening end portion, the trap portion and the second opening end portion constitute a vent path. The vent path is shaped not to connect the first opening end portion with the second opening end portion linearly but to connect the opening end portions in the bond portion via the trap portion larger than the opening end portions.

Abstract: With the reduced size of a solid state imaging device, the invention provides: a solid state imaging device of a chip size and having good environmental durability; a semiconductor wafer used for fabricating a solid state imaging device; an optical device module incorporating a solid state imaging device; a method of solid state imaging device fabrication; and a method of optical device module fabrication. The solid state imaging device comprises: a solid state image pickup device formed on a semiconductor substrate; a light-transparent cover arranged opposite to an effective pixel region, so as to protect (the surface of) the effective pixel region formed in one surface of the solid state image pickup device against external environment; and an adhering section formed outside the effective pixel region in the one surface of the solid state image pickup device, so as to adhere the light-transparent cover and the solid state image pickup device.

Abstract: An optical path delimiter having a lens is disposed so as to be in contact with a transparent lid bonded to a surface of a solid-state image sensor, and is fixed without bonded. Further, the solid-state image sensor to which the transparent lid is bonded, the optical path delimiter disposed so as to be in contact with the transparent lid without bonded, a DSP serving as a signal processor, a circuit part and a wiring board are fixed by being sealed in a synthetic resin. Even when distortion occurs due to warpage, flexure or the like on a board where the solid-state image sensor is disposed, the accuracy of the alignment of the lens with respect to the solid-state image sensor never decreases. In addition, the solid-state image sensor or the signal processor is never damaged by an external shock.

Abstract: With the reduced size of a solid state imaging device, the invention provides: a solid state imaging device of a chip size and having good environmental durability; a semiconductor wafer used for fabricating a solid state imaging device; an optical device module incorporating a solid state imaging device; a method of solid state imaging device fabrication; and a method of optical device module fabrication. The solid state imaging device comprises: a solid state image pickup device formed on a semiconductor substrate; a light-transparent cover arranged opposite to an effective pixel region, so as to protect (the surface of) the effective pixel region formed in one surface of the solid state image pickup device against external environment; and an adhering section formed outside the effective pixel region in the one surface of the solid state image pickup device, so as to adhere the light-transparent cover and the solid state image pickup device.

Abstract: A screw portion is provided on an image sensing unit, a screw hole portion to be engaged with the screw portion is provided on an optical path delimiter, and the screw portion and the screw hole portion are engaged together to thereby fix the image sensing unit and the optical path delimiter so that a lens barrel of the optical path delimiter is in contact with a transparent lid bonded to a surface of a solid-state image sensor. The solid-state image sensor, the transparent lid, a DSP, a wiring board and the like are sealed by a sealing portion made of a resin. Even when distortion occurs due to warpage, flexure or the like on the board where the solid-state image sensor is disposed, the accuracy of the positioning of the lens with respect to a pixel area of the solid-state image sensor is never decreased, it can be prevented that the solid-state image sensor or a signal processor is damaged by an external shock, and the optical device module is easily fabricated.

Abstract: A solid-state image sensor, a transparent cover, a DSP, a wiring board and the like are sealed in a sealing portion by molding of a synthetic resin, and fixed to an imaging unit. At this time, a portion of the transparent cover is exposed from the sealing portion. The optical path fixing device and the imaging unit sealed by the sealing portion are fixedly combined by engagement of hook engaging portions and hook portions, in a state where the lower end surface of a lens barrel comes into contact with the exposed portion. As the result, positioning accuracy of a lens with respect to a pixel area of the solid-state image sensor dose not deteriorate even if a substrate on which the solid-state image sensor is arranged is deflected or distorted.

Abstract: An optical path delimiter having a lens is disposed so as to be in contact with a transparent lid bonded to a surface of a solid-state image sensor, and is fixed without bonded. Further, the solid-state image sensor to which the transparent lid is bonded, the optical path delimiter disposed so as to be in contact with the transparent lid without bonded, a DSP serving as a signal processor, a circuit part and a wiring board are fixed by being sealed in a synthetic resin. Even when distortion occurs due to warpage, flexure or the like on a board where the solid-state image sensor is disposed, the accuracy of the alignment of the lens with respect to the solid-state image sensor never decreases. In addition, the solid-state image sensor or the signal processor is never damaged by an external shock.

Abstract: A screw portion is provided on an image sensing unit, a screw hole portion to be engaged with the screw portion is provided on an optical path delimiter, and the screw portion and the screw hole portion are engaged together to thereby fix the image sensing unit and the optical path delimiter so that a lens barrel of the optical path delimiter is in contact with a transparent lid bonded to a surface of a solid-state image sensor. The solid-state image sensor, the transparent lid, a DSP, a wiring board and the like are sealed by a sealing portion made of a resin. Even when distortion occurs due to warpage, flexure or the like on the board where the solid-state image sensor is disposed, the accuracy of the positioning of the lens with respect to a pixel area of the solid-state image sensor is never decreased, it can be prevented that the solid-state image sensor or a signal processor is damaged by an external shock, and the optical device module is easily fabricated.

Abstract: A module for an optical device being provided with a wiring substrate having a conductive wiring patterned thereon, a solid-state image sensor, a DSP for controlling the operation of the solid-state image sensor and processing a signal outputted from the same, and a lens holder being placed opposite to the solid-state image sensor and having a function of an optical path demarcating unit for demarcating the optical path to the solid-state image sensor, wherein a transparent cover bonded to the surface of the solid-state image sensor is joined to the lens holder at a joint portion. It is unnecessary to provide a focus adjuster for matching the optical distance between the lens and the solid-state image sensor with the focal length of the lens.

Abstract: A solid-state image sensing device has a printed board; a solid-state image sensing element fixed to the printed board; and a light-transmitting lid section fixed to the solid-state image sensing element so as to cover an image sensing area (effective pixel area). The printed board has a bore which penetrates through the printed board in a thickness direction thereof, at least a part of the light-transmitting lid section is fitted in the bore, and connecting terminals of the printed board are connected to connecting terminals of the solid-state image sensing element.

Abstract: A solid-state imaging device which has a wiring substrate, a solid-state image sensor having a face opposite to a pixel area fixed to the wiring substrate, and a transparent cover fixed to the solid-state image sensor through an adhesive layer so as to oppose the pixel area of the solid-state image sensor. The wiring substrate has, on a side opposing the transparent cover, a cavity being provided with plural connecting terminals. The solid-state image sensor is fixed to a bottom face of the cavity in a state where the solid-state image sensor falls into the cavity. The connecting terminals of the cavity are connected with a connecting terminals of the solid-state image sensor, respectively through a wiring which falls into the cavity.

Abstract: An imaging device as a semiconductor device includes a semiconductor substrate on which an imaging element is mounted, a light-transmitting lid section (covering section) arranged to face a light receiving section provided on one surface of the imaging element, and an adhesive layer arranged in an area excluding the light receiving section on the one surface of the imaging element for bonding between the semiconductor substrate and the lid section. The adhesive layer ranges from 10 g/(m2·24 h) to 200 g/(m2·24 h) in the water vapor permeability.

Abstract: A bond portion for bonding the principal plane of a solid-state imaging element with a transparent covering portion and configuring a hollow portion therebetween is provided with: a first opening end portion on the hollow portion side; a second opening end portion on the outer side; and a trap portion. The first opening end portion, the trap portion and the second opening end portion constitute a vent path. The vent path is shaped not to connect the first opening end portion with the second opening end portion linearly but to connect the opening end portions in the bond portion via the trap portion larger than the opening end portions.

Abstract: A module for an optical device being provided with a wiring substrate having a conductive wiring patterned thereon, a solid-state image sensor, a DSP for controlling the operation of the solid-state image sensor and processing a signal outputted from the same, and a lens holder being placed opposite to the solid-state image sensor and having a function of an optical path demarcating unit for demarcating the optical path to the solid-state image sensor, wherein a translucent cover bonded to the surface of the solid-state image sensor is joined to the lens holder at a joint portion. It is unnecessary to provide a focus adjuster for matching the optical distance between the lens and the solid-state image sensor with the focal length of the lens.

Abstract: With the reduced size of a solid state imaging device, the invention provides: a solid state imaging device of a chip size and having good environmental durability; a semiconductor wafer used for fabricating a solid state imaging device; an optical device module incorporating a solid state imaging device; a method of solid state imaging device fabrication; and a method of optical device module fabrication. The solid state imaging device comprises: a solid state image pickup device formed on a semiconductor substrate; a light-transparent cover arranged opposite to an effective pixel region, so as to protect (the surface of) the effective pixel region formed in one surface of the solid state image pickup device against external environment; and an adhering section formed outside the effective pixel region in the one surface of the solid state image pickup device, so as to adhere the light-transparent cover and the solid state image pickup device.

Abstract: A memory card connected to a host system includes a command detection section for detecting an identification code transmission request command which is input from the host system and an identification code control section for outputting to the host system, in response to a detection signal output from the command detection section, a predetermined identification code which indicates compatibility of the memory card with the host system.

Abstract: A memory card connected to a host system includes a command detection section for detecting an identification code transmission request command which is input from the host system and an identification code control section for outputting to the host system, in response to a detection signal output from the command detection section, a predetermined identification code which indicates compatibility of the memory card with the host system.