Abstract: An electronic component includes a package substrate, a plurality of conductive pads, an insulating material and a semiconductor device. The plurality of conductive pads is disposed on the package substrate. The insulating material is disposed between the plurality of conductive pads. The insulating material includes a top surface located on an identical plane to an upper surface of the plurality of conductive pads. The semiconductor device includes a conductive bump aligned on a corresponding conductive pad of the plurality of conductive pads.

Abstract: A multichip module includes a package substrate, a first semiconductor device, a second semiconductor device and a conductive bump. The first semiconductor device is flip-chip bonded to the package substrate. The first semiconductor device includes a first chip pad on a surface thereof. The second semiconductor device is mounted on the first semiconductor device. The second semiconductor device includes a second chip pad facing the first chip pad. The conductive bump connects the first chip pad to the second chip pad. The conductive bump includes a first metallic body that has a first diffusion rate and a second metallic body that has a second diffusion rate lower than the first diffusion rate.

Abstract: A compression-bonding apparatus includes a support stage and a pressing tool. The pressing tool includes a pressing stage, an elastic member and a plurality of bonding heads. The elastic member is held by the pressing stage. The plurality of bonding heads includes an upper surface attached to the elastic member and a lower surface facing an upper surface of the support stage.

Abstract: An RFID tag includes an inlet on which an antenna pattern serving as an antenna for communication and an IC chip electrically connected to the antenna pattern are mounted. The RFID tag also includes an exterior body that encloses the inlet from outside and a hollow space that is formed by the inlet and the exterior body and that is filled with gas or a gel material.

Abstract: A radio frequency identification tag is provided. The radio frequency identification tag includes a base, an antenna formed on the base, an integrated circuit chip electrically connected to the antenna, and a bonding layer bonding the integrated circuit chip to the base. The bonding layer includes a conductive filler. The base is configured to bend away from a surface on which the integrated circuit chip is bonded.

Abstract: An electronic device includes: a base; a conductor pattern formed on the base; a circuit chip electrically connected to the conductor pattern; and a reinforcing member which is disposed on the base to surround the circuit chip, whose outer shape is like a ring, and which has such an internal structure that a plurality of columns extending in the thickness direction of the base are dispersed in a predetermined substrate. The electronic device further includes a sealing member which fills an inside of the reinforcing member while covering the top of the circuit chip, thereby sealing the circuit chip on the base.

Abstract: When a semiconductor chip is mounted using ultrasonic vibration, a method of mounting makes it possible to bond the semiconductor chip and bonding patterns with sufficient bonding strength without making the construction of a circuit board complex. The method of mounting a semiconductor chip causes ultrasonic vibration to act on the semiconductor chip to mount the semiconductor chip on a circuit board by flip-chip bonding. As the circuit board, a circuit board is used where protrusion patterns are provided at positions on bonding patterns to which the semiconductor chip is bonded corresponding to antinodes of vibration for a case where the bonding patterns resonate due to ultrasonic vibration applied by the semiconductor chip.

Abstract: An electronic apparatus manufacturing method comprises applying a first adhesive agent to a mounting portion, a first heating, in such a way that connection pads and bumps, come into contact, by pressing a heating head against a non-mounting surface of the electronic component, heating the electronic component, hardening the first adhesive agent, affixing the mounting substrate and electronic component, filling a space between the mounting substrate and the electronic component with a second adhesive agent under reduced pressure, and a second heating step of, from being under reduced pressure to being under atmospheric pressure, by pressing the heating head against the non-mounting surface of the electronic component, heating the electronic component, as well as hardening the second adhesive agent, melting the connection pads, and joining the connection pads and the bumps.

Abstract: A manufacturing method for an electrode connecting portion includes covering an electrode forming surface with a solder sheet, rolling a heating roller on the solder sheet that covers the electrode forming surface, and removing the solder sheet after the heating roller has passed over the solder sheet.

Abstract: A radio frequency identification tag includes a substrate, and an antenna pattern disposed on an outer peripheral side surface of the substrate. An electronic device is electrically connected to the antenna pattern, and is mounted on the outer peripheral side surface of the substrate.

Abstract: A method of flip-chip mounting can reliably and stably mount a semiconductor chip to a mounting substrate while avoiding problems such as damage to the semiconductor chip due to a difference in thermal expansion coefficients between the semiconductor chip and the mounting substrate. The method of flip-chip mounting a semiconductor chip supports a mounting substrate on a stage in a state where a resin material has been supplied onto a chip mounting surface of the mounting substrate and presses the semiconductor chip toward the mounting substrate using a pressure/heat applying head to bond the semiconductor chip to the mounting substrate and thermally harden the resin material. A concave part is provided in a support surface of the stage that supports the semiconductor chip, and the semiconductor chip is bonded to the mounting substrate by pressing the semiconductor chip toward the mounting substrate using the pressure/heat applying head in a state where the mounting substrate is bent toward the concave part.

Abstract: An electronic device includes: a base; a conductor pattern formed on the base; a circuit chip electrically connected to the conductor pattern; and a reinforcing member which is disposed on the base to surround the circuit chip, whose outer shape is like a ring, and which has such an internal structure that a plurality of columns extending in the thickness direction of the base are dispersed in a predetermined substrate. The electronic device further includes a sealing member which fills an inside of the reinforcing member while covering the top of the circuit chip, thereby sealing the circuit chip on the base.

Abstract: An electronic device includes: a base; a conductor pattern formed on the base; and a circuit chip electrically connected to the conductor pattern. The electronic device further includes a reinforcing member which is disposed on the base to surround the circuit chip, whose outer shape is like a ring, and which includes layers stacked in the thickness direction of the base. The lowermost layer of the layers is closest to the base and softer than the layer that is at least one of the remaining layers. The electronic device further includes a sealing member which fills an inside of the reinforcing member while covering the top of the circuit chip, thereby sealing the circuit chip on the base.

Abstract: An electronic device includes: a base; a conductor pattern formed on the base; a circuit chip electrically connected to the conductor pattern; and a reinforcing member which is disposed on the base to surround the circuit chip, whose outer shape is like a ring, and which includes concentric rings as an internal structure. The electronic device further includes a sealing member which fills an inside of the reinforcing member while covering the top of the circuit chip, thereby sealing the circuit chip on the base.

Abstract: An IC tag comprises a substrate on which a wiring pattern is formed, an IC chip which is bonded and mounted to the substrate by bringing a bump into press-contact with the wiring pattern, a repulsive member that is arranged on the surface opposite to the surface of the substrate on which surface the IC chip is mounted, and that is made of a material having higher rigidity than the substrate, and an exterior package member which is configured to cover the substrate, the IC chip, and the repulsive member.

Abstract: According to an aspect of the invention, an electronic part includes a substrate having a first planar surface, a first bump affixed to the first planar surface of the substrate, a second bump affixed to the first planar surface of the substrate a predetermined distance from the first bump, a MEMS chip including a element, the MEMS chip coupled to the first bump and the second bump, the MEMS chip distanced from the first planar surface, an adhesive region bonding with the first bump, the substrate and the MEMS chip.

Abstract: An electronic device comprises a substrate; a wiring pattern which is provided on a front surface of the substrate, and which includes a plurality of connection ends; a circuit component which houses a circuit, and which includes bumps, electrically connected to the circuit, that project from a specific surface of the circuit component, and which is disposed with the specific surface facing the front surface of the substrate; conductive members which electrically connect the bumps of the circuit component and the connection ends of the wiring pattern, and which fix the circuit component to the substrate; and guide sections which are provided on the substrate, and to each of which the conductive member forced out of an interval above the corresponding connection end is guided to prevent the conductive member from reaching a connection end other than the corresponding connection end.

Abstract: The method of bonding flying leads is capable of efficiently supersonic-bonding the flying leads to pads of a board and improving bonding reliability therebetween. The method comprises the steps of: mechanically processing the board so as to form projections, which act as margins for deformation, in boding faces of the pads, on each of which the flying lead will be bonded, positioning the flying leads to correspond to the pads; and applying supersonic vibrations to a bonding tool so as to deform and crush the projections, whereby the flying leads are respectively bonded to the pads.

Abstract: A method of manufacturing a semiconductor device flip-chip bonds electrode terminals of a substrate and a semiconductor chip together by solid-phase diffusion and underfills a gap between the substrate and the semiconductor chip with a thermosetting resin without the bonds between the terminals breaking due to heat in an underfill hardening step. The method includes a bonding step of flip-chip bonding the electrode terminals of the substrate and the semiconductor chip by solid-phase diffusion, an underfill filling step of filling the gap between the substrate and the semiconductor chip with the underfill material, and the underfill hardening step where the underfill material is heated to the hardening temperature to harden the underfill material. During the underfill hardening step, a member with a lower coefficient of thermal expansion out of the substrate and the semiconductor chip is heated to a higher temperature than the other member.

Abstract: An electronic apparatus manufacturing method comprises applying a first adhesive agent to a mounting portion, a first heating, in such a way that connection pads and bumps, come into contact, by pressing a heating head against a non-mounting surface of the electronic component, heating the electronic component, hardening the first adhesive agent, affixing the mounting substrate and electronic component, filling a space between the mounting substrate and the electronic component with a second adhesive agent under reduced pressure, and a second heating step of,, from being under reduced pressure to being under atmospheric pressure, by pressing the heating head against the non-mounting surface of the electronic component, heating the electronic component, as well as hardening the second adhesive agent, melting the connection pads, and joining the connection pads and the bumps.