High Component Counts
Large modules and communication, automotive or industrial products may require high placement output even when the assembly contains wafer-supplied dies or specialized components.
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Get Quote →The SIPLACE CA4 was developed for production that must combine high placement output, large substrate formats and more than one material route. Its configurable architecture can bring wafer-supplied dies, feeder components and tray materials into a coordinated assembly process for semiconductor modules, hybrid electronics and large-area advanced packaging.
Direct die supply, wafer maps and die handling
SMDs, trays and packaged components
The installed combination of wafer systems, component-supply positions, placement heads and software defines the capability of each CA4 machine.
The CA4 belongs to an earlier generation of SIPLACE CA equipment created to mix traditional surface-mount components with dies supplied from wafers. Its purpose was not simply to make a standard mounter faster; it was to give high-volume electronics production a practical route for adding semiconductor die handling without separating every product into unrelated SMT and die-bonding lines.
The ASM SIPLACE CA4 is a high-speed, large-area chip assembly platform from the SIPLACE CA family. It uses a four-position placement architecture and can be configured with different combinations of conventional component-supply positions and SIPLACE Wafer Systems.
This configurable material layout is the central difference between the CA4 and a conventional feeder-only SMT mounter. One machine can be arranged for packaged components, direct wafer-die handling or a combination of both, depending on the specific CA4 version and installed modules.
Advanced modules may contain hundreds or thousands of conventional components together with bare dies, sensors, MEMS devices or flip-chip parts. A feeder-only line handles the SMD portion efficiently, while a dedicated die bonder handles wafer materials but may not match the same placement output or substrate format.
The CA4 platform was designed to reduce that gap by combining high-output SIPLACE placement technology with CA-series wafer handling. This makes it relevant where throughput, substrate area and mixed material supply must be considered together.
The value of the CA4 comes from coordinating output, working area and mixed material handling rather than optimizing only one of these factors.
Large modules and communication, automotive or industrial products may require high placement output even when the assembly contains wafer-supplied dies or specialized components.
Panel-level, embedded and large-format electronics require more than small-package accuracy. Conveyor range, support strategy and stable placement across the working area become equally important.
One product can require tape feeders, trays, component tables and direct wafer supply. CA4 configurations allow these material routes to be combined around the required production mix.
The platform is most useful when a product requires high placement volume or a large working area together with non-standard semiconductor material handling.
A CA4 should be evaluated as a complete assembly system. The placement heads are important, but they must be matched with material supply, vision, transport and software.
Four installed placement positions provide the platform structure for high-output processing. Head type and working condition determine the actual component range and accuracy.
SWS modules manage wafer frames, die pickup, wafer data and the transfer of dies into the placement process.
Component tables, X feeders, trays and other supply modules support packaged SMDs and auxiliary materials.
PCB cameras, component cameras and head vision functions identify fiducials, components and dies before controlled placement.
Conveyor configuration, substrate support, station software and SIPLACE Pro data determine line integration and product programming.
Legacy CA4 naming is associated with different combinations of SIPLACE Wafer Systems and conventional component-supply positions. This distinction is essential when sourcing a used machine because the three layouts are intended for different material mixes.
| Configuration | SIPLACE Wafer Systems | Component-Supply Positions | Placement Positions | Typical Production Focus |
|---|---|---|---|---|
| SIPLACE CA4-4 | Four wafer-system positions | No conventional component-table positions in the documented layout | Four | High-volume processing dominated by wafer-supplied dies and semiconductor components |
| SIPLACE CA4-2 | Two wafer-system positions | Two conventional component-supply positions | Four | Balanced hybrid production combining direct wafer materials with feeder or table-supplied components |
| SIPLACE CA4 | No wafer-system positions in the documented base layout | Four conventional component-supply positions | Four | High-speed large-area placement using packaged components, trays and conventional material routes |
The exact sequence depends on the product, but a configured CA4 line generally coordinates substrate preparation, multiple material routes, precision placement and process data in six stages.
Programs, wafer maps, feeders, trays, component shapes, nozzles and substrate data are prepared for the required assembly.
Large boards, panels or module carriers enter the conveyor and are stabilized by the configured support system.
Wafer systems, component tables, tape feeders or trays present the required die and packaged component mix.
Fiducials, dies and components are inspected and aligned before placement across the working area.
Four placement positions distribute the component mix to balance output, accuracy and material travel.
Placement results and production records are stored before the substrate moves to reflow, curing, inspection or later packaging processes.
The CA4 was supplied in several configurations and generations. The values below describe a commonly documented high-speed CA4 setup and should be checked against the individual machine.
Nominal speed is useful for initial comparison, but it does not confirm direct-wafer capability, the installed head mix or the usable working area at the required accuracy.
| Reference Item | Commonly Documented Value | What Must Be Confirmed |
|---|---|---|
| Placement speed | Up to approximately 126,500 components per hour | Head combination, component mix, process route and software optimization |
| Placement accuracy | Approximately ±15 µm at 3 sigma in a documented C&P20 M2 / CPP M configuration | Installed head labels, calibration class and applicable working area |
| Feeder capacity | Up to 160 tape-feeder modules in a conventional supply configuration | Actual component-table layout and included feeder carts |
| Component range | Small-chip through approximately 15 × 15 mm depending on head | Head-specific minimum, maximum, height and pickup tooling |
| Substrate size | Approximately 50 × 50 mm to 650 × 700 mm in documented configurations | Conveyor type, accuracy requirement, support and transport direction |
| Substrate thickness | Approximately 0.3 to 4.5 mm | Board material, warpage, carrier and clamping requirements |
| Machine dimensions | Approximately 1,950 × 2,740 × 1,572 mm | Exact version, options, service clearance and line layout |
| Machine weight | Approximately 3,674 kg | Shipping configuration, floor loading and included modules |
| Power supply | 3 × 380 to 415 V, 50/60 Hz in documented installations | Machine nameplate and destination-factory utilities |
| Compressed air | Approximately 0.5 to 1.0 MPa | Required pressure, quality, consumption and connection |
Large panels and substrates introduce mechanical and optical conditions that can affect placement quality. Stable results depend on support, mapping, fiducials and the relationship between accuracy and working area.
Large or thin substrates can bow under their own weight. Pins, carriers or dedicated support tooling must stabilize the placement surface.
Local and global fiducials help compensate for substrate expansion, rotation and dimensional variation across a large working area.
Board width, thickness, weight and edge clearance determine whether standard transport or a specialized carrier is required.
Programs must divide components among placement positions while limiting travel, avoiding collisions and protecting takt time.
The selected CA4 layout should reflect how most components enter the process. A wafer-dominated product requires a different machine than a feeder-dominated large panel.
SIPLACE Wafer Systems present bare dies for pickup according to wafer maps and the installed die-handling configuration.
Conventional SIPLACE feeders provide passive components, packaged ICs and other tape-and-reel materials at high output.
JEDEC trays, component tables and application-specific carriers handle components that are unsuitable for tape packaging.
Both belong to the CA family, but they should not be treated as interchangeable. The CA4 is a legacy high-volume four-position platform with several material-layout variants, while the CA2 is a newer compact hybrid system developed around integrated SMT, die-attach and flip-chip production.
Best evaluated where an existing product, line or process was qualified around CA4, or where four placement positions, large-area handling and legacy SWS configurations are required.
Better suited to teams evaluating a newer CA platform with defined direct-wafer die attach, flip-chip, SMT placement, multi-wafer exchange and modern traceability functions.
A used CA4 may be mechanically sound but still unsuitable for a factory if transport, software, material logistics or takt time are not aligned.
Confirm conveyor height, direction, board handoff, width adjustment and compatibility with upstream and downstream equipment.
Calculate placement time by component family and material route rather than comparing only nominal CPH.
Review SIPLACE Pro version, station software, licenses, component libraries and interface compatibility.
Plan wafer frames, feeder carts, trays, changeovers, storage and replenishment around the selected CA4 configuration.
The platform is relevant where product size, component quantity and material diversity make a simple feeder-only production route inefficient.
Multi-component modules combining passives, packaged ICs and one or more wafer-supplied dies.
Panels and large substrates requiring high component counts, stable board support and accurate placement across the working area.
RF, network and infrastructure modules using dense component populations and specialized semiconductor devices.
Control, sensing and power modules requiring repeatable placement, traceable material handling and robust substrate support.
Assemblies that combine sensitive dies, packaged drivers, passives and application-specific carriers.
Production transfers, capacity expansion and replacement-machine projects built around existing CA4 programs and process approvals.
CA4 machines can differ in generation, material layout, heads, camera type, conveyor and software. A correct equipment match requires physical and software evidence from the individual unit.
Clear documentation reduces the risk of receiving a machine that has the correct model name but the wrong material or process layout.
Machine and replacement-part matching should use the installed module label, original part number, serial information and application rather than the CA4 model name alone.
Compare CA4 with dedicated die-attach and semiconductor assembly platforms for specialized processes.
View Die Bonder Equipment → Material SupplySupport for compatible feeder units, tape widths, feeder parts and production material setups.
View ASM Feeders → Configuration SupportSend machine labels, module photographs, part numbers and production requirements for review.
Discuss Your Requirement →Answers for teams reviewing CA4 large-area assembly, wafer-system layouts, legacy production and used equipment.
It is a high-speed, large-area chip assembly platform from the SIPLACE CA family. It uses four placement positions and can be configured with conventional component supply, SIPLACE Wafer Systems or a combination of both.
It was developed for products that required high-output SMD placement together with wafer-supplied semiconductor dies. The platform allowed these material routes to be combined more closely within one production environment.
The legacy names are associated with different combinations of SIPLACE Wafer Systems and conventional component-supply positions. CA4-4 is wafer-system dominated, CA4-2 combines two wafer and two conventional supply positions, and the documented CA4 base layout uses conventional supply positions.
No. Direct wafer capability depends on whether SIPLACE Wafer Systems and the required die-handling hardware and software are physically installed on the individual machine.
No. Depending on configuration, it can be used for conventional SMT placement, wafer-die handling, die attach, flip-chip or mixed assembly. The actual process scope must be confirmed from the installed modules.
A commonly documented high-speed configuration is rated at approximately 126,500 components per hour. Actual output depends on heads, component mix, wafer operations, substrate size, travel distances and line balance.
Documented configurations support large substrate formats, but the usable size depends on conveyor arrangement, placement accuracy, support tooling, substrate thickness and machine version.
The CA4 is an older four-position platform with several wafer and conventional material layouts. The CA2 is a newer integrated hybrid platform with published direct-wafer die-attach, flip-chip, SMT and multi-wafer exchange capabilities.
Integration is possible when conveyor flow, station software, SIPLACE Pro compatibility, component libraries, factory interfaces, utilities and line takt requirements are aligned.
Confirm the generation, serial number, all four placement positions, head labels, wafer systems, component tables, feeder layout, cameras, conveyor, software, licenses, machine condition and included accessories.
The supply scope varies by unit and quotation. Each feeder cart, wafer module, nozzle set, tray system, carrier and spare part should be listed individually before purchase.
Send the required material routes, wafer format, component range, substrate dimensions, target output, preferred CA4 configuration and destination for equipment matching.
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