ALTIUM DESIGNER® 18 - WHAT’S NEW FEATURE SUMMARY
AD16 vs AD18
$ begingroup $ Yep, the PCB Inspector is a very powerful tool. It's got all sorts of capabilities $ endgroup $ – DerStrom8 Nov 13 '17 at 16:42 $ begingroup $ Access the PCB Inspector panel by: Clicking the PCB button at the bottom-right of Altium Designer when the PCB Editor is active then selecting the PCB Inspector entry from the pop-up. I am trying to add a logo to my PCB using Altium Designer 16.1 via 'PCB Logo Creator' software. However it was not so neat. Do you have an idea to prepare better logo which would be taken from a ph. Top 4 Time Wasters in PCB Design Collaboration PCB design collaboration doesn’t have to be difficult when you use the right project management and communication tools. Read Article Getting Started with revision Control in Altium 365 Forget about tracking copies of project files, use the revision control tools in Altium 365 to track project.
Altium continues its focus on delivering user-focused, easy-to-use and performance-enhancing printed circuit board (PCBs) design tools as part of a single price solution with the introduction of Altium Designer 18.
TOPICS IN THIS SOLUTION
HIGH PERFORMANCE MADE SIMPLE
Altium Designer 18 significantly enhances user experience and productivity using a modern interface to streamline your design workflow, while enabling unprecedented performance optimization with 64-Bit architecture and multi-threading.
You can create interconnected multi-board projects and render high density, complex PCB assemblies quickly and accurately. The modern user interface, along with updates to enhance routing, BOM creation, rule-checking, and manufacturing hand-off capabilities, enable you to design more efficiently and productively than ever.
When you have the latest version of Altium Designer, you can rest assured you have the most powerful, modern, and easy-to-use printed circuit board (PCB) design technology at your fingertips.
- POLYGON REPOUR ALL
- GERBER FILES GENERATION
- ONLINE DRC
- FILE OPENING (WITH SCENE BUILDING)
- PROJECT COMPILATION TIME
Project A: 4-Layer, Tracks 39.6K, Components 1925, Nets 1267, Polygons 369
- POWERFUL PCB DESIGN
64-Bit architecture and refactored, multi-threaded code make better use ofyour computer’s resources for features you use regularly.
Altium Pcb Tutorial
Design large, complex boards faster than ever with the assurance of neverrunning out of memory.
Leverage more efficient algorithms to significantly improve task execution,speed and design time on many common tasks - including online DRC, schematic compile, polygon pour, and output generation.
- MODERN INTERFACE EXPERIENCE
The Properties Panel combines property dialogs and the Inspector Panel, simplifying access to object attributes and parameters using selection filters, document/snap options, shortcuts and object properties.
Libraries Panel and Global Search
The Libraries Panel enables fast search and placement of components, whileincorporating relevant supply chain data from over 100 verified suppliers.
Layers and Color Panel
The Layers and Colors Panel equips you with complete power to customizelayer scale, masks, 3D objects, and even system colors visibility.
Displays important design information in one location for a more streamlined experience - including context sensitive information to clearly visualize your design workflow.
Memorizing a command or accessing a certain dialog is no longer a hassle. Use the global search to quickly access your entire design for anything from computer-aided design objects to commands.
Quickly switch between savable configuration view styles to filter out the noise and clutter so that you can focus on your design without distractions.
- INTERCONNECTED MULTI-BOARD ASSEMBLY
Multi-Board Assemblies and NATIVE 3D™ Rendering
Connectivity management and enhanced 3D engine allows you to render design models and multi-board assemblies while defining interconnections between them
Define interconnections between multiple boards to render cohesive, realistic assemblies that work right the first time.
Plus, switch between 2D and 3D layouts in an instant without needing to switch to another program - optimizing design speed and performance while providing detailed
shading and realism.
Visual Constraints and user-guided routing automation enable you to route complex topologies across layers.
Altium Pcb Design
Rapidly route a large number of connections (i.e. BGA, DDR, Busses, etc.) and complex topologies at the speed of a computer, but the quality of a veteran PCB designer.
- REAL-TIME BOM MANAGEMENT
Real-world items link to your BOM, so every part is associated with real-time availability, price, and supply chain information from over 100 verified suppliers and personal supplier contracts.
Easily track the availability, price, lead time, and approved supplier source early in the design phase - while leaving part purchasing decisions until the final stages. Simply place generic parts in your design and link to real-world items from suppliers on your own timeline.
- SEAMLESS PCB DOCUMENTATION PROCESS
Directly place all of the necessary assembly and manufacturing views with actualsource data for easy updates.
Eliminate yet another product and disparate process from your design workflow to generate your fabrication and assembly drawings.
All drawings update to match source data with the push of a button, without any file exchanges.
Want to be at the forefront of rigid-flex PCB design innovation? Join our subscription list - it provides the latest Altium Designer functionality as soon as it’s available, so you are always equipped with the most powerful, modern and easy-to use tools.
In my previous article, Generating Outputs for Assemblers, we generated a fantastic assembly drawing for an assembler or contract manufacturer to visually determine component placement positions. However, there are times you may wish to provide drawings that impart additional clarity to your assembler in order to ease the setup of machines or other processes—this typically involves panelization dimensions or fiducial positions on the panel. In the last article, we did not provide any dimensions to the assembler or any panel view, as the panel for that project was quite simple.
If you have a complex panel involving many boards, it can be helpful to provide dimensions to the origin of each board within the panel. When assemblers work with board specific pick and place files rather than a full panel’s pick and place files, it can help them considerably to have the offsets from the panel origin for each board. Some assembly machines don’t like having duplicates of each designator, making a single panel pick and place files not viable. Likewise, if you have multiple designs, the assembly machine may not handle having multiple identical designators (e.g., R1 or C1) with different values well. This limitation may not be purely for the machine’s software, but to reduce the chance of operator error too. Therefore, if you have a single file with multiple R1s where, say, four are the same value and one is different, it wouldn’t be a difficult mistake to group them all together for the machine to place the same value all at once.
A multi-PCB panel that makes sense from a low volume production design standpoint but isn’t very friendly to a PCB assembler.
This panel is fairly non-standard, with 4 different designs on it, two of which have multiple copies that are not in a nice array. This panel isn’t very friendly to an assembler, and may take a lot of extra setup work compared to one with all the parts in a nice array or on multiple panels. All of these boards are used on a single low volume product, so it makes sense to manufacture one panel per unit rather than multiple panels containing an array of boards.
As a note on the panel above, there are multiple areas that are not following good design for assembly practices. For example, many of the boards are held into the panel with mouse nibble tabs. This could cause the boards to flex or bounce under the placement force of the assembly machine, or even break the individual boards off in the machine. This is where experience and working closely with your assembler on a design can allow you to deviate from industry best practice without affecting your production success rates.
I have setup the panel pictured earlier in a draftsman document that is set up the same as in the previous article, with the addition of SMT and PTH pads visible. Usually, for an assembly drawing, pads being visible can make it more difficult to read component designators. However, for this specific assembly drawing, we don’t need the designators to be legible, as each board should have it’s own individual assembly drawing which makes everything perfectly clear.
A draftsman document set up as described in the Generating Outputs for Assemblers article, but has SMT pads visible.
There are several types of dimensions available within draftsman, which you can access either from the right click -> Place menu, from the Place menu on the top toolbar (which you can do by pressing the P key on your keyboard), or from the Active Bar at the top of the editor.
Pressing P on your keyboard will bring up the Place menu at your mouse pointer.
Holding your left mouse button down on the linear dimension button will bring down a menu with all of the dimension types.
Ordinate dimensions from the bottom left panel corner allow for easier assembly and less confusion.
Using the Ordinate Dimension, you can quickly add dimensions from an origin point to your assembly drawing. This is an easy way to reference the location of each board on the panel. To use this dimension tool, click on one edge of your circuit board, and then click on a corner of each point you want to add a reference to. Press escape or right click when you are finished adding dimensions. The successive dimensions will not to reference a line, just a vertex/corner, so I have found that adding dimensions to corners is the fastest way to go.
Try to keep dimension lines short, without spanning across your whole panel. In this example, there are boards within the panel that should be defined from all sides, using the bottom right corner of the panel as the origin point. This keeps the measurements as visible as possible.
The draftsman document after the dimensioning was complete. Notice how all dimensions start from either the bottom edge or the left edge.
It may be worth noting to your assembler that these measurements are absolute with respect to the origin, not individual. The arrow style denotes this, however, many mechanical drawings with sequential measurements displayed in this fashion would consider each successive number to be the distance from the last measurement.
If you have an array of boards (multiple rows and/or columns), you can dimension from the first board to the second board and set the dimension suffix to ‘ TYP.’ (for Typical - not the leading trace)=. This denotes that all successive copies match this measurement unless otherwise stated.
TYP. dimensions allow you to quickly describe to the assembler that this dimension repeats across all boards on the axis.
You can do the same for your corner mounting holes in the panel as well, dimensioning a single hole with Ø 3.0 TYP. for example. Use a Diametral Dimension for dimensioning holes.
The right way to put dimensions on mounting holes is through diametral dimensioning.
Furthermore, you can use annotations to call out the name and rotations of each board. This is especially useful if you have multiple copies of a board in different orientations on the panel.
Board names and orientations help the assemblers a lot. The more detail you add, the easier time the assembler has, and therefore the faster your assembly process will be completed.
When you submit your documents and outputs to an assembler or contract manufacturer, it’s vital to make sure you provide as much clarity as possible. If your production run is small or in prototype volume, this becomes especially true as the chances of manual labor being involved in the placement and inspection process is much greater than that of a large assembly run for which it is worth the time to program multiple machines and set up automated optical inspection. By providing as much clarity as possible to an assembler, you can save on your lead time by not having the assembler stop their process to contact you, as well as reduce errors from an assembler working off a faulty assumption based on incomplete or unclear data.
Spending an extra hour using the amazing tools that Altium Designer® provides to document your project and transfer knowledge to your manufacturing partners can save you days or even weeks of delays on a project.
Find out more about PCB data management and the great paradigm shift or if you have more questions call an expert at Altium.