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MultiWriter Part Programming Device Library

MultiWriter technology is available on CheckSum Analyst low cost in-circuit testers or in the standalone MultiWriter pps™ On-board Gang Programming System.

MultiWriter Part Programming Families
MultiWriter has a comprehensive library of supported parts families, which is being updated and expanded on an ongoing basis. The figure below shows the part manufacturers with currently supported devices in the Library. You can download an up-to-date list of supported parts by manufacturer.

Please contact CheckSum to inquire if the parts family you need is planned or currently in development.


Manufacturers with parts in the MultiWriter Library

 

Part Programming

The throughput of simultaneous programming with the flexibility of custom programming. MultiWriter allows unique data such as a date code or serial number for the parts to be programmed with minimal impact on programming time. The part serial number or other data such as an assembly serial number entered via bar code can be stored in a file or provided at run-time. Calibration or other measurement data can be programmed into each part separately as illustrated in the diagram below.

Smart ISP™

MultiWriter’s Smart ISP (In-System Programming) technology ensures that the ISP programming phase follows a defect-free in-circuit test of the board. The test system programs only boards that have passed the in-circuit tests. Only assemblies that have passed the opens/shorts and other component tests are powered-on. For example, if a panel has seven tested-good assemblies out of eight total, then only those seven will be powered-on for ISP device programming.

Using the Data Encryption Protection option insures your IP (Intellectual Property) is not at risk anywhere in the world. Unique data (e.g. serial number, date code, MAC address, calibration data, etc) can be written to individual chips, as they are being gang-programmed.

Board Design Considerations

As is the case in most designs, the circuit design must allow in-system programming such that the device can be programmed without the requirement to overdrive other signals. The ISP device programming pins must be accessible via a bed-of-nails fixture—just like any other in-circuit test point.

The board or multi-board panel assembly layout should provide electrical access to the programming pins that are as physically close as possible to the device being programmed in order to minimize crosstalk and noise.

Device Programming Considerations

MultiWriter allows unique data such as a date code or serial number for the parts to be programmed with minimal impact on programming time. The part serial number or other data such as an assembly serial number entered via bar code can be stored in a file or provided at run-time. Calibration or other measurement data can be programmed into each part separately. Since unique data is typically a very small portion of the overall part memory, the programming time for chip-unique data will be minimal. A standard data file format (INTEL hex, Motorola S-Record, SVF, STAPL) is used for storage of unique data that is accessed during the ISP programming process.

The MultiWriter Controller board has two operating modes: Program and Verify. In Program mode, the controller places the ISP chip in the “program” state and code appropriate to the device is retrieved from the computer memory and applied via the fixture-based buffer boards. Once chip programming is complete, the MultiWriter controller places the chip in the “read” state and the code just programmed is verified. The Program and Verify operations can occur on a Test Step basis.

The board assembly (or individual panel in a multi-up assembly) will be powered-up to program the part, so some test system power source must be available and sufficient.

* Up to 16 MultiWriter control modules with up to 24 buffer modules each for 384 maximum devices. One MultiWriter control module required for each different device type.

 MultiWriter Technology is protected under U.S. Patent No. 7,802,021.

Part Programming at ICT

MultiWriter On-Board Gang Part Programming

Programming CPLD (Complex Programmable Logic Device) parts such as microcontrollers, serial Flash and FPGAs after they are attached to the circuit board [’on-board programming’] simplifies the manufacturing process and reduces inventory and rework costs compared to mounting pre-programmed chips.

Since the contents of Phase Change Memory (also known as PCM, PCME, PRAM, PCRAM, and C-RAM) can be lost because of the high temperatures needed to solder the device to a board, on-board programming is required.

Simultaneous Part Programming

MultiWriter uses patented simultaneous programming technology to simultaneously program up 384 chips at one time, up to 16 different types — usually in seconds instead of the minutes required by conventional programmers.

MultiWriter technology has already programmed millions of parts on millions of boards. Its ability to program up to 384 chips at once makes MultiWriter the industry’s most productive on-board part programmer.

MultiWriter Multiplies Productivity Two Ways

MultiWriter technology is available on CheckSum Analyst low cost in circuit testers or in the new standalone MultiWriter pps™ on-board gang programming system where at least four parts need to be programmed on a board or multi-board panel.

Combine in circuit test and MultiWriter part programming in a single system.

MultiWriter installed in an Analyst series in circuit tester:

  • Simultaneous programming ability means faster programming times, which means faster throughput
  • Eliminates expensive channel cards required by traditional in circuit solutions
  • No costly retrofit required to ICT system for hardware/software specific to part programming applications

The standalone MultiWriter pps gang programming system programs boards and panels with multiple parts much faster than on a traditional in circuit or functional tester.

MultiWriter pps used following the traditional in circuit tester:

  • High signal integrity via short wire lengths is well-suited to today’s higher programming speeds
  • Unified hardware architecture eliminates problems with multi-vendor dongle-type solutions
  • Simultaneous Programming means faster programming times; part programming will not become a process bottleneck.

MultiWriter Features & Benefits

MultiWriter technology is a clean, low cost solution to increase part programming productivity–regardless of whether it’s in an Analyst in circuit tester or in the MultiWriter pps gang programming system.

  • Innovative, patented technology to gang program serial flash and embedded flash devices mounted on the board or multi-up panel at near-data book speeds.
  • Data Encryption Protection option insures your IP (Intellectual Property) is not at risk anywhere in the world.
  • Unique data (e.g. serial number, date code, MAC address, calibration data, etc) can be written to individual chips, as they are being gang-programmed.
  • High throughput via simultaneous programming and verification of one to 384 chips¹ at a time.
  • Low cost via “universal hardware” that eliminates costly channel cards used by in circuit testers and easily configured software.
  • High signal quality with controller and programming buffers mounted right in the fixture.
  • Comprehensive serial flash and microcontroller library

MultiWriter is the first ISP programming system integrated right into the bed-of-nails fixture

  • Fixture-based architecture delivers maximum flexibility at the lowest possible cost.
  • Eliminates the requirement for expensive tester channels and long signal paths.
  • Smart ISP™ ensures that chips on failed boards are not programmed — even when they are part of a „multi-up” panel. With CheckSum’s Smart ISP technology, there’s no possibility of damaging expensive components. Power is applied only to those boards within a multi-board panel assembly that have passed the ICT opens/shorts and other component tests.

Simultaneous device programming

  • Up to 384 ISP devices whether on a single board or distributed across multiple boards in a panel assembly — and all combinations in between — are programmed simultaneously.
  • Flexible code verification: can be performed after all programming is complete or on a step-by-step basis.
  • Boards need not be de-paneled prior to programming parts.

Comprehensive device and bus algorithm library

  • Supported bus algorithms include I2C, SPI, Microwire, JTAG, and PIC.
  • MultiWriter’s library supports user-defined algorithms, as well.

Unique data may be programmed on a per-device basis — even on panelized boards

  • MultiWriter handles data unique to each device such as serial number or board calibration information.
  • Data collected on-the-fly at earlier test stages may be manipulated (i.e., calculations performed) and then programmed directly into the device during the same test sequence.

Fixture-mounted buffer boards ensure the highest signal quality

  • A buffer board associated with each device to be programmed delivers clean signals and state conditioning at the highest possible programming speed.
  • Buffer boards are mounted right in the fixture, eliminating cabling problems and ground return issues for noise-minimized reliability.
  • Up to 16 MultiWriter control modules with up to 24 buffer modules each for 384 maximum devices. One MultiWriter control module required for each different device family.

¹ Up to 16 MultiWriter control modules with up to 24 buffer modules each for 384 maximum devices. One MultiWriter control module required for each different device type.

 MultiWriter Technology is protected under U.S. Patent No. 7,802,021.

Simultaneous Part Programming: The Key to Fast Throughput and High Productivity

MultiWriter Simultaneously Programs Up to 384 Parts at Once

As CPLD memory sizes increase, fast programming times are critically important.  MultiWriter delivers impressive throughput improvements over convention ICT-based part programming approaches via three key innovations:

  1. Serial-bus programming at near-data book speeds facilitated by MultiWriter’s unique in-fixture hardware that eliminates expensive channel cards and minimizes wire length for excellent signal fidelity.
  2. Simultaneous programming of up to 384 identical chips at a time (crucial for multi-board panel assemblies).
  3. Simultaneous programming of up to 16 different device types of up to 24 chips each. That means up to 384 (16 x 24) devices may be programmed at once.

The example multi-board panel assembly illustrated at right demonstrates how MultiWriter with simultaneous part programming multiplies throughput compared to conventional one part at a time programming.

A panel consisting of four identical boards, each with three different programmable parts (labeled A, B, C) requires 12 separate programming and verification operations using a conventional in-line part programmer.

Simultaneous programming requires only a single program/verification step that covers all twelve parts.

Multi-board panel:
4 boards, each with 3 different ISP chips
Conventional Part Programming:
Requires 24 individual programming/verification steps conducted in sequence.

Each red box represents an individual programming/verification operation.

MultiWriter Simultaneous Programming:
Requires just one programming/verification step since all chips are programmed and verified in a single programming sequence.

MultiWriter Part Programmer is Designed for High Throughput & Low Cost


The MultiWriter Part Programming System solves the throughput and cost problems of earlier ISP programming techniques used in-line on in-circuit testers (ICT) and with 'dongle’-based approaches used at functional test.

Using CheckSum’s patented simultaneous programming technology to program up to 384 serial parts in a single pass, MultiWriter technology makes on-board part programming practical, affordable and productive.

And fast. Serial Flash, EEPROMS, embedded microcontrollers, and FPGAs are programmed at near-data book speeds. Since the contents of Phase Change Memory (also known as PCM, PCME, PRAM, PCRAM, and C-RAM) can be lost because of the high temperatures needed to solder the device to a board, on-board programming is required.

Using the Data Encryption Protection option insures your IP (Intellectual Property) is not at risk anywhere in the world. Unique data (e.g. serial number, date code, MAC address, calibration data, etc) can be written to individual chips, as they are being gang-programmed.

A unique test fixture-based controller and buffer card architecture reduces cost, improves signal quality. A USB 2.0 bus directly from the controller to computer and MultiWriter software designed for speed complete the productivity equation.

Software architecture enables simultaneous part programming

MultiWriter’s ability to program ISP devices simultaneously rests on its patented architecture that allows it to program up to 384 serial ISP devices per board or multi-up panel at high speed.

The total programming time is identical for a single chip on a single board, one chip per board on a multiple panel assembly, or any combination in between. Device-specific code is programmed following the simultaneous programming step. Since the amount of device-specific code is small compared to the code common to all chips, total programming time is affected very little, if at all.

For example, benchmark results conducted by CheckSum show that MultiWriter can program one or five Freescale 9S12H128 microcontrollers in the same amount of time using the BDM (Background Debug Mode) bus. Programming speed is limited by the chip, while the memory size for this microcontroller is 128k, but only 64k was programmed. With MultiWriter, the software overhead, programming, and verification took a total of 12.21 seconds (0.61 seconds software overhead, 6.13 seconds programming, and 5.47 seconds verification) for one device or for five devices, or more.

MultiWriter hardware is designed for low cost and high signal speedsMultiWriter hardware consists of two elements:

  • MultiWriter Controller
  • Buffer board(s)–one for each ISP device to be programmed.

The controller and as many buffer boards as required are mounted inside test bed-of-nails test fixture. This cost-effective design eliminates the requirement to modify the test system or install costly special-purpose channel cards.

Any MultiWriter-equipped fixture can be used on any CheckSum Analyst test system equipped with MultiWriter software on its PC or on the MultiWriter pps On-board Gang Programming System.

Short wire lengths between the buffer boards and the device being programmed/verified is ideal for dealing with increasing programming speeds.

MultiWriter Specifications*

MultiWriter ISP System Computer Interface

  • USB 2.0 or USB 1.1, USB 2.0 is recommended for maximum programming speed and throughput.
  • Requires CheckSum Analyst ems Test System Executive running in a Windows OS environment.

Controller Board

  • Maximum device Bus Speed: 6 MHz
  • Controller Board is connected to computer via USB 2.0, which also powers the controller board. Requires “high power” USB 2.0 rated hub.
  • Board draws approximately 150mA unloaded.
  • Board dimensions: approximately 3 x 5.5 inches (8 cm x 14 cm), typically mounted inside the bed-of-nails test fixture.

Buffer Board

  • Driver Voltage: 3.3V or resistor programmable for lower voltages
  • Nominal output impedance: 200 Ohms (Buffer to Device)
  • Nominal sensor voltage range: resistor programmable to 3.3V
  • Nominal sensor input impedance: >100K Ohms (Device to Buffer)
  • Twisted pair wiring recommended between buffer driver/sensor and device
  • Buffer Board nominal power supply requirement: +12V, +5V (typically from the optional PWR-2 module or power supply)
  • Single IC drivers/sensors per Buffer Board; full complement of N devices will require N single Buffer Boards (4-up Buffer Boards are available)
  • Single Buffer Board dimensions: 2.1 x 1.8 inches (5.3 cm x 4.6 cm)
  • 4-up Buffer Board dimensions: 2.1 x 7.2 inches (5.3 cm x 18.3 cm)
  • Buffer Boards are mounted inside the bed-of-nails test fixture


Note: The MultiWriter ISP System is appropriate for circuit boards and multi-board panel assemblies requiring on-board code programming and verification of serial bus ISP devices. MultiWriter is available only as an integrated element of a CheckSum-developed application package that includes a bed-of-nails fixture and associated test program operating on an Analyst in-circuit test system or on the MultiWriter pps On-board Gang Programming System.

* Up to 16 MultiWriter control modules with up to 24 buffer modules each for 384 maximum devices. One MultiWriter control module required for each different device type.

 MultiWriter Technology is protected under U.S. Patent No. 7,802,021.

The MultiWriter Part Programming System solves the throughput and cost problems of earlier ISP programming techniques used in-line on in-circuit testers (ICT) and with 'dongle’-based approaches used at functional test.

Using CheckSum’s patented simultaneous programming technology to program up to 384 serial parts in a single pass, MultiWriter technology makes on-board part programming practical, affordable and productive.

And fast. Serial Flash, EEPROMS, embedded microcontrollers, and FPGAs are programmed at near-data book speeds. Since the contents of Phase Change Memory (also known as PCM, PCME, PRAM, PCRAM, and C-RAM) can be lost because of the high temperatures needed to solder the device to a board, on-board programming is required.

Using the Data Encryption Protection option insures your IP (Intellectual Property) is not at risk anywhere in the world. Unique data (e.g. serial number, date code, MAC address, calibration data, etc) can be written to individual chips, as they are being gang-programmed.

A unique test fixture-based controller and buffer card architecture reduces cost, improves signal quality. A USB 2.0 bus directly from the controller to computer and MultiWriter software designed for speed complete the productivity equation.

Software architecture enables simultaneous part programming

MultiWriter’s ability to program ISP devices simultaneously rests on its patented architecture that allows it to program up to 384 serial ISP devices per board or multi-up panel at high speed.

The total programming time is identical for a single chip on a single board, one chip per board on a multiple panel assembly, or any combination in between. Device-specific code is programmed following the simultaneous programming step. Since the amount of device-specific code is small compared to the code common to all chips, total programming time is affected very little, if at all.

For example, benchmark results conducted by CheckSum show that MultiWriter can program one or five Freescale 9S12H128 microcontrollers in the same amount of time using the BDM (Background Debug Mode) bus. Programming speed is limited by the chip, while the memory size for this microcontroller is 128k, but only 64k was programmed. With MultiWriter, the software overhead, programming, and verification took a total of 12.21 seconds (0.61 seconds software overhead, 6.13 seconds programming, and 5.47 seconds verification) for one device or for five devices, or more.

MultiWriter hardware is designed for low cost and high signal speedsMultiWriter hardware consists of two elements:

  • MultiWriter Controller
  • Buffer board(s)–one for each ISP device to be programmed.

The controller and as many buffer boards as required are mounted inside test bed-of-nails test fixture. This cost-effective design eliminates the requirement to modify the test system or install costly special-purpose channel cards.

Any MultiWriter-equipped fixture can be used on any CheckSum Analyst test system equipped with MultiWriter software on its PC or on the MultiWriter pps On-board Gang Programming System.

Short wire lengths between the buffer boards and the device being programmed/verified is ideal for dealing with increasing programming speeds.

MultiWriter Specifications*

MultiWriter ISP System Computer Interface

  • USB 2.0 or USB 1.1, USB 2.0 is recommended for maximum programming speed and throughput.
  • Requires CheckSum Analyst ems Test System Executive running in a Windows OS environment.

Controller Board

  • Maximum device Bus Speed: 6 MHz
  • Controller Board is connected to computer via USB 2.0, which also powers the controller board. Requires “high power” USB 2.0 rated hub.
  • Board draws approximately 150mA unloaded.
  • Board dimensions: approximately 3 x 5.5 inches (8 cm x 14 cm), typically mounted inside the bed-of-nails test fixture.

Buffer Board

  • Driver Voltage: 3.3V or resistor programmable for lower voltages
  • Nominal output impedance: 200 Ohms (Buffer to Device)
  • Nominal sensor voltage range: resistor programmable to 3.3V
  • Nominal sensor input impedance: >100K Ohms (Device to Buffer)
  • Twisted pair wiring recommended between buffer driver/sensor and device
  • Buffer Board nominal power supply requirement: +12V, +5V (typically from the optional PWR-2 module or power supply)
  • Single IC drivers/sensors per Buffer Board; full complement of N devices will require N single Buffer Boards (4-up Buffer Boards are available)
  • Single Buffer Board dimensions: 2.1 x 1.8 inches (5.3 cm x 4.6 cm)
  • 4-up Buffer Board dimensions: 2.1 x 7.2 inches (5.3 cm x 18.3 cm)
  • Buffer Boards are mounted inside the bed-of-nails test fixture

Note: The MultiWriter ISP System is appropriate for circuit boards and multi-board panel assemblies requiring on-board code programming and verification of serial bus ISP devices. MultiWriter is available only as an integrated element of a CheckSum-developed application package that includes a bed-of-nails fixture and associated test program operating on an Analyst in-circuit test system or on the MultiWriter pps On-board Gang Programming System.

* Up to 16 MultiWriter control modules with up to 24 buffer modules each for 384 maximum devices. One MultiWriter control module required for each different device type.

 MultiWriter Technology is protected under U.S. Patent No. 7,802,021.

PILLARDOT

Simple drop-jet fluid deposition system

The Pillarhouse Drop-Jet head can be used to spray fluids at any angle in either upward or downward directions.

With its patented easy bleed and cleaning feature it is ideal for automation use. The head comes complete with a hand control unit which allows the operator to fully program the spray head.

The spray function and length of spray duration are both fully programmable at intervals in milliseconds. The controller can be triggered by 24V or RS232 interface.

The PillarDOT system can also be supplied as part of an X,Y axis unit with conveyor transfer.

Wide ranging use applications include solar cell, medical and electronic applications.

Optional Extras

  • Flux Bottle and Low Pressure Regulator Assembly Panel. (Required if Customer Does not have their own flux containment/supply system)
  • Standard Additional Flux Head
  • Additional Titanium Flux Head
  • Single 100 Non-Titanium micron Drop-Jet Flux Head
  • Single 150 Non-Titanium micron Drop-Jet Flux Head
  • Flux Head Titanium Top 100 micron
  • Flux Head Titanium Top 150 micron
  • Flux Head Titanium Top 200 micron (standard size)
  • Drop Jet Maintenance Kit

PILLARPAD

An off-line process programming system

Product Description

PillarPAD is the Windows® based Off-line Programming system for the Pillarhouse International range of Selective Soldering Systems. It provides a user-friendly interface to allow the User to produce Process Programs away from the Production line. This results in reduced downtime for the production line when configuring for a new product.

PillarPAD is a two-part software package:

PillarPAD Import

  • The pre-processor part of the package.
  • Interprets Gerber data and populates the process database with data to produce the graphical image.
  • Reads Gerber RS274 and RS274X formats.
  • Imports separate apertures lists with a semi-intelligent import wizard.

PillarPAD Draw

  • The process design part of the package.
  • Produces Graphical representations of the PCB.
  • Allows setting of Program Header data.
  • Allows easy creation of flux, preheat and solder joints and paths.
  • Solder nozzles shown as actual size.

The PillarPAD software package creates a single data file that can then be transferred to the required Selective Soldering System(s). One process program can be used on multiple Soldering Systems.

PillarPAD is available in two licensed formats

  • Software locked. This allows PillarPAD to be installed and run on a single PC. This is a non-transferable license.
  • Hardware locked. This allows PillarPAD to be installed on multiple PCs and a USB dongle is used to enable the package. Only the PC with the dongle fitted can run PillarPAD.

PillarPAD is compatible with XP®, Vista® , Windows7®, Windows8® and Windows10®.

PILLARGEN 30 / 40 / 80

Cost effective Nitrogen generating systems

The PillarGEN Nitrogen generation system has been specifically designed to meet the Nitrogen supply requirements of the current range of Pillarhouse selective soldering systems.

The latest Nitrogen generation design technology combines compact size with ultra-quiet operation.

Product Description

The PillarGEN-30 is specifically designed to integrate with the Pillarhouse Pilot bench top soldering system.

The PillarGEN-40 and -80 systems offer a fully integrated communication protocol to allow the monitoring and displaying of the unit’s status on the selective soldering machine. These values include oxygen concentration, flow rates and pressure – incoming air/outgoing Nitrogen.

Quadron

High Specification bench top rotary table soldering machine

A versatile four station rotary bench top soldering machine ideally suited for high or low volume production, the Quadron, combines well proven pumped soldering techniques with advanced microprocessor technology. Much of its versatility is owed to the specially designed programming system which allows the user access to all fluxing and soldering parameters at any time, in addition, rapid product change-over is achieved quickly and easily through simple tooling design and program identification. The machine is at home both processing coils/sub-assemblies/transformers or small PCB’s in either small or large batches. Cycle times as low as 5 secs can be achieved.

Description

Fluxing System

The flux is applied to the terminals via a crucible or sprung test probes, which is lifted from the bath to the component, this provides high quality and consistent repeatability. Flux application is of paramount importance, this is where the Quadron has an advantage, as it is able to control the application and avoid bobbin contamination by applying flux accurately. Excess flux and insulation residue is kept to a minimum by careful control of the dip height and immersion time, this being achieved through a microprocessor and stepper drive motors. The Quadron can be supplied with either a fixed flux bath or self-contained recycling flux tank which helps reduce the evaporation of the flux thinners.

Soldering

The Quadron uses a well proven solder pump system and incorporates a solder nozzle which can be of various designs to suit the product. Dross is removed from the nozzle prior to the next soldering operation

by increasing the pump speed and bursting solder from the nozzle, this occurs during the index operation and does not impede the overall cycle time. The component is dipped in the solder by means of the precision stepper driven tooling slide, which provides precise, accurate and repeatable results. Also, for the optimum soldered joint, Pillarhouse is able to provide a Nitrogen shroud which makes the soldering operation totally inert and helps prevent bridging, reduces dross and provides an improved quality. One major advantage the Quadron has is the ability to tilt a component out of the solder, this facility will help to prevent solder bridging of fine pitched connectors and the like.

Programming

The Quadron can be quickly and easily programmed to solder a wide range of different products, e.g. coils, transformers, wire terminations and small PCB’s. The machine has a memory capacity for 40 programmes (This can be increased to 160). The fluxing and soldering parameters are entered via a keyboard, to give full control of: solder bath temperature (to within ±1°C), flux and solder dip heights (increments of 0.1mm), and flux and solder immersion time (to within 0.1 of a second). Additional operations can also be controlled, e.g. component test facility, component unload and adjustment of the cycle time etc. A twenty-four hour wake-up timer is included as standard equipment which enables the machine to be automatically powered-on and bought up to temperature prior to the start of a working shift

Standard Features

Turnover

The optional turnover facility enables components with terminals on up to four sides to be handled on the same tooling, with fluxing and soldering performed at the same time without the need for the component to be re-loaded. Also, if a component has different soldering requirements on each side the Quadron can be programmed with different programming parameters for each side of the part.

Automatic Test/Unload

Optional continuity test and/or unload facilities offer the ability for components to be tested for electrical continuity or resistance prior to the component being automatically or manually ejected as a pass or fail.

Solder Top-up

This option ensures the solder level in the bath is kept constant; the level is automatically continually monitored using proximity switch system which instructs the system to automatically top-up the solder. This system uses a reel of 3mm diameter solder which is mounted on the rear of the machine; the solder is fed into the bath pneumatically.

Cadet

Nastołowa maszyna do selektywnego lutowania

Uniwersalna obrotowa stacja lutownicza idealnie nadaje się do produkcji dużej lub małej objętości, Cadet, łączy w sobie dobrze sprawdzone techniki lutowania z zaawansowaną technologią mikroprocesorową. Znaczna część jego wszechstronności wynika ze specjalnie zaprojektowanego systemu programowania, który umożliwia użytkownikowi dostęp do wszystkich parametrów topnika i lutowania, a ponadto szybką zmianę produktu uzyskuje się szybko i łatwo dzięki prostemu projektowaniu narzędzi i identyfikacji programu.

Opis

Nanoszenie topnika

Przy użyciu tego samego systemu co w procesie lutowania strumień jest doprowadzany do końcówek za pomocą tygla, co zapewnia wysoką jakość i powtarzalność. Zastosowanie topnika ma ogromne znaczenie, to tutaj Cadet ma przewagę, ponieważ jest w stanie kontrolować aplikację i unikać zanieczyszczenia szpuli przez dokładne podawanie topnika. Nadmiar strumienia i resztki izolacji są ograniczone do minimum dzięki starannej kontroli wysokości zanurzenia i czasu zanurzenia, co osiąga się dzięki mikroprocesorowi i silnikom krokowym.

Lutowanie

Cadet wykorzystuje prosty, niezawodny system statyczny, który zapewnia czyste lutowie na stałym poziomie i objętości, oferując w ten sposób powtarzalne połączenia lutowane o wysokiej jakości w każdej operacji. Tygiel lub aplikator (który może być specyficzny dla produktu, jeśli jest wymagany) jest podnoszony ze stopionej kąpieli z lutu w celu zanurzenia końcówek komponentów w aplikatorze na dokładną głębokość i przez kontrolowany okres czasu. Wszelkie zanieczyszczenia lub kożuchy są usuwane bezpośrednio z powierzchni lutu przez unikalny podwójny system czyszczenia bezpośrednio przed lutowaniem. Temperatura lutowia jest kontrolowana przez procesor i oferuje użytkownikowi możliwość podgrzewania lutu do 500 ° C, co daje możliwość użycia zarówno lutów o wysokiej jak i niskiej temperaturze.

Programowanie

Cadet może być szybko i łatwo zaprogramowany do lutowania szerokiej gamy różnych produktów, np. Cewek, transformatorów, końcówek przewodów i małych płytek PCB. Urządzenie ma pamięć do 49 programów, a parametry topnika i lutowania są wprowadzane za pomocą klawiatury, aby zapewnić pełną kontrolę: temperatury kąpieli lutowniczej (z dokładnością do ± 5 ° C), wysokości strumienia topnika i lutowania (co 0,1 mm ), oraz czas zanurzenia strumienia i lutowania (do 0,1 sekundy). Dodatkowe operacje można również kontrolować, np. narzędzie do testowania komponentów, rozładowanie komponentów i regulacja czasu cyklu itp. 24-godzinny zegar budzika jest dostarczany jako standardowe wyposażenie, które umożliwia automatyczne włączanie i wyłączanie urządzenia, co umożliwia np. nagrzanie lutowia do określonej temperatury przed rozpoczęciem zmiany..

Funkcje standardowe

Opcje Systemu

The Cadet, bardzo wszechstronna maszyna może być jeszcze bardziej rozbudowana poprzez dodanie różnych opcjonalnych urządzeń, niektóre opcje są wymienione poniżej.

Obrotnica

Opcjonalny moduł obrotu umożliwia obsługiwanie komponentów z końcówkami po przeciwnych stronach przy użyciu tego samego oprzyrządowania, przy jednoczesnym topieniu i lutowaniu bez konieczności ponownego ładowania podzespołu. Ponadto, jeśli komponent ma różne wymagania dotyczące lutowania po każdej stronie, kadet zidentyfikuje różne parametry programowania.

Automatic Test/Unload

Opcjonalne urządzenia testujące i / lub wyładowujące umożliwiają przetestowanie komponentów pod kątem ciągłości elektrycznej lub odporności przed wyrzuceniem / rozładowaniem komponentu automatycznie lub ręcznie w funkcji przejścia lub usterki.

Kontroler gęstości topnika FDC

Ta opcja jest oddzielną samodzielną maszyną i znajduje się na podłodze sąsiadującej z częścią lutującą, kontroluje lepkość topnika i utrzymuje go przy właściwej grawitacji. FDC jest podłączony do maszyny do lutowania i nieustannie ponownie cyrkuluje topnik pomiędzy nim a zbiornikiem topnika w maszynie. Po powrocie do FDC topnika, przechodzi przez Hydrometr, który monitoruje jego lepkość, jeśli staje się zbyt gęsty, dodaje się rozcieńczalniki, aż do uzyskania odpowiedniej konsystencji.

Monitoring Options

Specyfikacja

  • Wysokość: 655 mm / 26 „
  • Wysokość: 1395 mm / 55 „z podstawą
  • Szerokość: 510 mm / 20 „
  • Głębokość: 730 mm / 29 „
  • Lutowanie: wszystkie powszechnie stosowane rodzaje lutowia – w tym bezołowiowe
  • Aplikatory: specjalne dysze
  • Ciśnienie zasilania powietrzem: 5 bar / 72 psi
  • Zasilacze: jednofazowy + PE
  • Napięcie: 208V – 250V
  • Częstotliwość: 50 / 60Hz

Jade Prodex

Ultra-flexible, offline, multi-platform quick load twin PCB rotary table selective soldering system

Designed to meet the needs of the small batch manufacturer who requires high levels of production flexibility. The Jade Prodex offers the ability to regularly change solder alloys without incurring expensive down time, whilst the solder bath cools down and heats up during a regular manual changeover process.

The Prodex is an offline system, incorporating a quick load twin PCB universally adjustable rotary table transport system to allow simultaneous load / unload during product processing.

Description

In its basic format, the Prodex is configured with a single solder bath. In its Duplex guise, the machine can be configured with twin adjacent solder baths on independent Z axis drives. This achieves increased production flexibility by permitting use of two different nozzle tip sizes which can be allocated as process requirements dictate within any particular area on a PCB.

All Prodex configurations can be offered with optional automatic heated solder bath change stations. Using this system the non-operational solder bath and pump system can be stationed at one of the two optional heated park positions located at either side of the main machine. This heated station, maintains the correct solder temperature within the bath that is idle so that when changeover occurs, the replacement bath can resume immediate production. A single automatic solder bath change station is identified as a PLUS configuration, whilst twin stations (located at both sides of the machine) are identified as PLUS PLUS configurations. On this basis Duplex machines with the PLUS PLUS identity will operate with 4 individual solder bath and pump systems.

The Prodex series is controlled by a PC, through PillarCOMM, a Windows® based ‘Point & Click’ interface with a PCB image display.

Additionally our optional PillarPAD offline programming package allows the operator to produce programs independently from the machine using Gerber data.

Standard Features

  • DC servo drives
  • Rotary indexing table with twin adjustable positions
  • Integral PC and machine mounted TFT monitor
  • Inerted Nitrogen system
  • Auto motorised wire solder feed & level detect
  • Solder bath coding – identifies correct bath for program
  • Drop-Jet fluxer
  • Manual fiducial correction system
  • Solder wave height measurement and correction
  • Process viewing camera(s)
  • Multilevel password protection
  • Light stack
  • Six AP style solder nozzle tips
  • Internal fume extraction
  • Colour programming camera
  • PillarPAD offline programming system
  • Universally adjustable tooling carrier
  • Thermal nozzle calibration system using integrated setting camera – requires manual correction
  • PillarCOMM Windows® based ‘Point & Click’ interface
  • Lead-free compatible
  • Day-to-day service kit

Monitoring Options

  • Flux presence sensor – thermistor style
  • Flux spray, flow and spray & flow
  • Pump rpm
  • O2 ppm
  • Nitrogen flow

System Options

  • Side mounted auto bath changeover – PLUS configuration
  • Top-side instant IR preheat
  • Bottom-side slide in / out instant IR preheat
  • Closed loop pyrometer temperature control
  • Bottom-side hot Nitrogen selective preheat
  • Automatic fiducial correction
  • Ultrasonic fluxing
  • Dual Drop-Jet / ultrasonic fluxing
  • Laser PCB warp correction
  • Twin solder bath capability on independent Z axis
  • Micro nozzle assembly
  • Large solder bath for dedicated single dip applications
  • Solder bath removal trolley
  • Solder reel identification
  • Larger PCB handling size
  • Nitrogen generator

Specifications

  • Height: 1208mm / 47.5” to 2025mm / 80”- with light stack
  • Width: 1250mm / 49“ to 1460mm / 57”- with rotate
  • Depth: 2020mm / 79.5”
    2240mm /88” with flux bottles
  • Board size: 457mm x 508mm / 18”x 20”
  • Edge clearance: Above/below 3mm
  • Height clearance: Above/below 40mm nominal
    70mm max. top-side only
  • Solder: Most commonly used solder types – including lead-free
  • Solder pot capacity: 20kg standard – 30kg large bath
  • Applicators: AP style – 2.5mm to 16mm dia.
    Extended AP style – 2.5mm to 20mm dia.
    Micro nozzle – 1.5mm to 2.5mm
    Jet-Tip style – 6mm to 40mm dia.
    Jet-Wave nozzle – up to 25mm width
    Special dedicated nozzles available upon request
  • Flux: Low maintenance Drop-Jet system. Low solids (below 8%), no clean flux, pressurised and inerted system, optional water soluble system available
  • X, Y & Z Axis resolution: 0.1mm
  • Repeatability: +/- 0.05mm
  • Nitrogen usage: Up to 40 litres gas/min per bath using single bath with standard AP solder nozzle, 5 bar pressure.
    Up to 80 litres gas/min using duplex twin bath configuration.
    Refer to Pillarhouse for Nitrogen usage requirement with dedicated multi-tube nozzle assemblies.
  • Nitrogen purity: 99.995% or better
  • Power supplies: Three phase + neutral + PE
  • Voltage: 230 V phase to neutral / 400V phase to phase
  • Frequency: 50/60Hz
  • Power : Maximum 9kVA per phase machine configuration dependent
  • Transport: Hand load
  • Tooling: Integral adjustable board guides, includes finger extensions and board clamps.
  • Programming: PillarCOMM Windows® based ‘Point & Click’ interface

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