A substrate (3) and two or more different chips (1a, 1b) having different heating properties (e.g. caused by different dimensions (surface area and/or thickness), heat capacity (C1, C2), absorptivity, conductivity, number and/or size of solder bonds) are provided. A solder material (2) is disposed between the chips (1a, 1b) and the substrate (3). A flash lamp (5) generates a light pulse (6) for heating the chips (1a, 1b), wherein the solder material (2) is at least partially melted by contact with the heated chips (1a, 1b). A masking device (7) is disposed between the flash lamp (5) and the chips (1a, 1b) causing different light intensities (1a, 1b) in different areas (6a, 6b) of the light pulse (6) passing the masking device (7), thereby heating the chips (1a, 1b) with different light intensities (1a, 1b). This may compensate the different heating properties to reduce a spread in temperature between the chips (1a, 1b) as a result of the heating by the light pulse (6). The chips (1a, 1b) may be releasably carried by a chip carrier disposed between the flash lamp (5) and the substrate (3) before being positioned on the substrate (3), wherein the light (6a, 6b) of the light pulse (6) transmitted by the masking device (7) is projected onto the chips (1a, 1b) held by the chip carrier for heating the chips (1a, 1b), releasing them from the chip carrier and transferring them to the substrate (3), wherein the heated chips (1a, 1b) cause melting of the solder material (2) between the chips (1a, 1b) and the substrate (3) for attaching the chips (1a, 1b) to the substrate (3).

An apparatus for applying an adhesive fluid onto a bonding surface during a bonding process includes a positioning table, a dispensing device, a stamping device and a switching member which are mounted on the positioning table. The dispensing device is configured to be positionable by the positioning table to dispense the adhesive fluid onto the bonding surface. The stamping device is configured to be positionable by the positioning table to stamp the adhesive fluid onto the bonding surface. The dispensing device and stamping device are operative to apply the adhesive fluid onto different bonding positions on the bonding surface. The switching member coupled to the stamping device is configured to move the stamping device to a first standby position when the dispensing device is dispensing the adhesive fluid and to a second standby position when the stamping device is stamping the adhesive fluid.

A substrate processing apparatus 30 includes a first holding unit 200 configured to hold a processing target substrate W; a second holding unit 300 disposed to face the first holding unit 200 and configured to hold a support substrate S; and an ultraviolet irradiation unit 400 configured to irradiate an ultraviolet ray to an adhesive G provided between the processing target substrate W and the support substrate S. Each of the support substrate S and the second holding unit 300 is made of an ultraviolet transmissive material. An electrode 320 configured to electrostatically attract the support substrate S is provided within the second holding unit 300. A diffusion layer 330 configured to diffuse a transmission direction of the ultraviolet ray is provided at a position closer to the support substrate S between the support substrate S and the electrode 320 within the second holding unit 300.

Systems and methods are provided for producing an integrated circuit package, e.g., an SOIC package, having reduced or eliminated lead delamination caused by epoxy outgassing resulting from the die attach process in which an integrated circuit die is attached to a lead frame by an epoxy. The epoxy outgassing may be reduced by heating the epoxy during or otherwise in association with the die attach process, e.g. using a heating device provided at the die attach unit. Heating the epoxy may achieve additional cross-linking in the epoxy reaction, which may thereby reduce outgassing from the epoxy, which may in turn reduce or eliminate subsequent lead delamination. A heating device located at or near the die attach site may be used to heat the epoxy to a temperature of 55 C.5 C. during or otherwise in association with the die attach process.

Disclosed is a die bonding tool comprising: a rigid body; and a collet having a die-holding portion; wherein the collet is mechanically coupled to the rigid body by a flexible element which is configured to angularly deflect relative to the rigid body on application of a torque to the collet and/or to a die held by the collet. Also disclosed is a die bonding system comprising the die bonding tool, and an adhesive dispenser for a die bonding system.

A liquid material application method for filling, based on a capillary action, a liquid material ejected from an ejection device, the method includes a step of preparing a plurality of cycles and allocating the cycles to the application regions, the cycles each including one ejection pulse combined with a plurality of pause pulses at a predetermined ratio, a correction amount calculation step of measuring an ejection amount at timing of a correction period that is set in advance, and calculating a correction amount of the ejection amount, and a step of adjusting a ratio of the pause pulses to one ejection pulse for one or more cycles based on the correction amount calculated in the correction amount calculation step, wherein a length of the pause pulse is set to be sufficiently shorter than a length of the ejection pulse.

Provided is an electronic component mounting method including the steps of: placing an electronic component having a primary surface on which a first electrode is formed, on a circuit member having a primary surface on which a second electrode corresponding to the first electrode is formed, with solder and a bonding material including a thermosetting resin interposed between the first and second electrodes; subjecting the thermosetting resin to a first heating at a temperature lower than the melting point of the solder and thus causing the resin to cure, while pressing the electronic component against the circuit member, and then releasing pressure applied for the pressing; and subjecting the solder interposed between the first and second electrodes to a second heating with the pressure released, and thus melting the solder to electrically connect the first and second electrodes.

A method and apparatus for soldering a chip (1a) to a substrate (3). A chip carrier (8) is provided between a flash lamp (5) and the substrate (3). The chip (1a) is attached to the chip carrier (8) on a side of the chip carrier (8) facing the substrate (3). A solder material (2) is disposed between the chip (1a) and the substrate (3). The flash lamp (5) generates a light pulse (6) for heating the chip (1a). The heating of the chip (1a) causes the chip (1a) to be released from the chip carrier (8) towards the substrate (3). The solder material (2) is at least partially melted by contact with the heated chip (1a) for attaching the chip (1a) to the substrate (3).

Provided is a flip chip mounting apparatus for mounting chips (400) to a substrate (200), and the apparatus includes at least one sectionalized mounting stage (45) divided into a heating section (452) and a non-heating section (456), the heating section being for heating a substrate (200) fixed to a front surface of the heating section, the non-heating section not heating the substrate (200) suctioned to a front surface of the non-heating section. With this, it is possible to provide an electronic-component mounting apparatus that is simple and capable of efficiently mounting a large number of electronic components.

A mounting device includes a thermocompression bonding head, a pressure reduction mechanism, and a resin sheet feed mechanism. The thermocompression bonding head is configured to heat a semiconductor chip while holding the semiconductor chip and to bond the semiconductor chip to a joined piece by compression. The thermocompression bonding head has a suction hole in a face that holds the semiconductor chip. The pressure reduction mechanism communicates with the suction hole and is configured to reduce pressure inside the suction hole. The resin sheet feed mechanism is configured to supply a resin sheet between the thermocompression bonding head and the semiconductor chip. An electrode that protrudes from a top face of the semiconductor chip is bonded by thermocompression after being embedded in the resin sheet.