Abstract:
A mounting apparatus obtains calibration values for calibrating a difference between coordinate values based on top-view and bottom-view images, for each assumed placement height of a planned placement area of a mounting body. A calibration controller calculates calibration values based on the top-view and bottom-view images from a bottom-view imaging unit and top-view imaging units employing a Scheimpflug optical system by imaging a calibration index matching the placement height. A mounting controller adjusts a position of a mounting tool so that a planned contact surface of the mounting body is at the placement height to recognize a reference position based on the bottom-view image, and adjusts positions of the top-view imaging units so that the focal plane falls on the same plane as the placement height to recognize a target position based on the top-view images of the planned placement area and the calibration values corresponding to the placement height.
Abstract:
In this mounting device (10) for mounting a semiconductor chip (100) on a substrate (104), a controller (50) is provided with: a mounter for pressing the semiconductor chip (100) to the substrate (104) in a state where a cover film (110) is interposed between the semiconductor chip (100) and a thermocompression tool (16), and for heating and then cooling the thermocompression tool (16) to mount the semiconductor chip (100) on the substrate (104); and a separator for heating the thermocompression tool (16) after the semiconductor chip (100) has been mounted, and for raising a mounting head (17) to be separated from the cover film (110).
Abstract:
A semiconductor device manufacturing device (10) includes a stage (12), an installing head (14) that has a chip holding surface (26) and disposes a chip (100) on a substrate (110), a measuring mechanism (16) that measures a tilt angle of the chip (100) loaded on an installing surface (112) of the substrate (110) by the installing head (14) with respect to the installing surface (112) as a detection tilt angle Sd, a holding surface adjusting mechanism (18) that changes a holding surface tilt angle Sb which is a tilt angle of the chip holding surface (26) with respect to a loading surface (21), and a controller (20) that calculates a correction amount C of the holding surface tilt angle Sb based on the detection tilt angle Sd and changes the holding surface tilt angle Sb by the holding surface adjusting mechanism (18) according to the calculated correction amount C.
Abstract:
The disclosure shows a mounting apparatus including a primary pedestal with a mounting stage installed thereon, a gantry frame supported on the primary pedestal, mounting heads supported on the gantry frame in a manner movable in the Y direction, a secondary pedestal arranged apart from the primary pedestal, and a Y-direction load receiver installed on the secondary pedestal in a manner movable in the X direction and immovable in the Y direction, in which an X-direction stator is attached to the secondary pedestal, and in which one end of a Y-direction stator attached to the gantry frame and the Y-direction load receiver are connected using a connection member, thereby suppressing vibration of the primary pedestal caused when the plurality of mounting heads are moved in the X and Y directions.
Abstract:
Provided is a plate-like heater for a bonding apparatus (30) including: a lower surface (31b) to which a bonding tool (40) is attached; and an upper surface (31a) to which a heat insulator (20) is attached. The upper surface (31a) is provided with a large number of capillary slits (35), and the large number of capillary slits (35) and a matching surface (21) of the heat insulator (20) attached to the upper surface (31a) form a large number of capillary coolant flow-paths (37) each extending from a cavity (36) to a lateral surface (33). This allows effective cooling of the heater for a bonding apparatus.
Abstract:
This bonding apparatus is provided with: a tape feeder module which takes out an electronic component from a carrier tape and transfers the electronic component thus taken out; a die supply module which has a die pick-up mechanism for picking up a semiconductor die from a semiconductor wafer bonded to a dicing sheet by pushing up the semiconductor die and which transfers the semiconductor die thus picked up; and a bonding module which arranges, on a circuit substrate, the semiconductor die supplied by the die supply module and/or the electronic component supplied by the tape feeder module.
Abstract:
A wiring structure (10) includes: a fixed member (14); a movable member (12) which moves rectilinearly with respect to the fixed member (14); a wire material (16) which connects the movable member (12) and the fixed member (14); a movable guide (18) over which the wire material (16) is stretched and which can move rectilinearly with respect to the fixed member (14); and a movement mechanism (20) which causes the movable guide (18) to move, in conjunction with the rectilinear movement of the movable member (12), rectilinearly in a direction in which the loosening or tightening of the wire material (16) caused by the rectilinear movement of the movable member (12) is offset.
Abstract:
The present invention is provided with: first and second bases, which are guided by a guide rail to thereby linearly move; a linear scale provided with graduations at predetermined pitches in the moving direction; and first and second encoder heads attached to the first and second bases. In the present invention, while maintaining, at a predetermined interval a, a distance between the first and second encoder heads, and moving the first and second bases along the guide rail, first and second graduation numbers, at which the first and second encoder heads are positioned, are sequentially detected from the first and second encoder heads, and the amount of movement of the first and second bases is controlled on the basis of the ratio between the predetermined interval a and the distance on the scale between the first graduation numbers and the second graduation numbers.
Abstract:
A method for manufacturing a semiconductor device and a mounting apparatus are provided. The method for manufacturing a semiconductor device includes: a placing step for placing, on a bonding surface, a temporary substrate which is transmissive with respect to an alignment mark; an image acquisition step for acquiring an image of the alignment mark and an image of a semiconductor die; a correction step for correcting, on the basis of the image of the alignment mark and the image of the semiconductor die acquired in the image acquisition step, the position in the horizontal direction of a bonding head that pressure bonds the semiconductor die to the temporary substrate; and a pressure bonding step for pressure bonding the semiconductor die to the transmissive substrate on the basis of the corrected position in the horizontal direction.
Abstract:
A mounting apparatus for mounting an electronic component onto a substrate includes: a mounting tool (14) configured to hold the electronic component by a holding surface (14a) as a tip end surface of the mounting tool; a movement mechanism configured to move the mounting tool (14) relatively with respect to the substrate; an angle detection mechanism configured to measure an inclination of a planar-plated measurement jig (64) held by the holding surface (14a); and a controller configured to control driving of the mounting apparatus, wherein during inspection of the holding surface (14a), the controller causes the mounting tool (14) to hold the measurement jig (64), and the angle detection mechanism to measure the inclination of the measurement jig (64). With this, a mounting apparatus capable of measuring a condition of the holding surface of the mounting tool more correctly is provided.