
This is course promotional video. Just like a teaser of any movie. :) :) :)
In this video, you will come to know that what are all the topics will be covered in the course. Just like an Index of a any textbook.
In this video you will learn how to install the tool.
Explore the main PCB types—single-sided, double-sided, and multi-layer—along with rigid, flexible, and rigid-flex designs, including their conductive traces and component placement.
Classify pcbs into class a, b, and c to reflect different life cycles and warranties, and apply industry-specific design guidelines from toys for class a to aerospace for class c.
Identify PCB components: core material, top and bottom copper, paste mask or solder paste, solder mask, silkscreen, and prepreg, and explain how prepreg bonds copper layers to form multilayer PCBs.
Explore copper, core, and prepreg thicknesses in PCB design, learn how to choose thicknesses based on current and temperature, and rely on manufacturer data sheets for accurate stack-up specs.
Explore laminate PCB and foil PCB concepts, focusing on FR4 fiberglass reinforced epoxy as the dielectric core and copper layer bonding with prepreg to create multi-layer structures.
Explain the standard two-layer pcb thickness of 1.57 mm from a 1.5 mm core plus 0.035 mm copper on both sides. Define thin, ideal, and thick pcbs with copper variations.
Create a fresh OrCAD and Allegro PCB design project, organize folders for schematic, symbol library, data sheets, BOM, footprints, and documents, and save as a DSN file.
Explore the OrCAD capture environment, initialize a new project, manage the file hierarchy and schematic sheets, and use title blocks, design cache, and page management for multi-sheet schematics.
Explore pan and zoom workflows in Cadence OrCAD/Allegro, including zoom in, zoom out, zoom to region, and zoom to all, with shortcuts I and O and Ctrl+scroll.
Master schematic select in Cadence OrCAD/Allegro by using area or click selection, applying selection filters and intersecting rules to pick nets, parts, pins, and wires.
Adjust line and shape properties in OrCAD through miscellaneous settings. Explore how default line style, width, color, and fill affect schematic and part editors, and review the session log.
Learn and apply schematic design templates in Cadence OrCAD/Allegro, configuring font size and style, alias colors, and pin name/number formats, then set up title blocks and basic document details.
Explore how to set the schematic page size in Cadence OrCAD/Allegro, including A, B, C and custom options in inches or millimeters and pin spacing 0.1 in.
Learn to use schematic page grid references to locate components quickly by configuring horizontal and vertical divisions, numeric and alphabetic labeling, and border and title block visibility.
Enable automatic backups in AutoCAD schematic and learn to save every few minutes, manage manual backups, and configure backup location and retention of the latest backups.
Master window management in Cadence OrCAD/Allegro: open new windows, cascade and tile layouts, maximize, and close tabs in active projects.
Export schematic to PDF via file export or print, set output directory and sheet size (A4), and configure ghost script, title blocks, and design templates for a review-ready PDF.
Learn how to create and manage electronic symbol libraries in OrCAD Capture, including project-oriented and independent libraries, and how to save, locate, and add OLB files.
Create an independent OrCAD library and design an IEEE standard resistor symbol (zigzag) with pins outside the dotted line, configuring part, package, and pin properties for schematic use.
Learn to create the photo register symbol in Cadence OrCAD/Allegro by drawing a zigzag resistor, adding two arrows with polylines, configuring pin names and visibility, and saving for schematic use.
Learn to create a thermistor symbol in Cadence OrCAD/Allegro by building a new part, drawing the zigzag resistor, adding pins, and saving for schematic use.
Learn to design connector symbols in cadence orcad/allegro, covering single inline and dual inline packages, pin headers, symbol creation, library setup, and schematic placement with pin naming.
Learn to create six-pin single inline package connectors in Cadence OrCAD/Allegro using the pin array option, customizing starting numbers, pin spacing, and side orientation, with steps shown in schematic view.
Create dual inline package connector symbols in cadence orcad/allegro using manual, array, and spreadsheet methods to design 2xN zigzag pin layouts—vertical and horizontal—with correct pin numbering.
Learn to create IEEE standard diode symbols in Cadence OrCAD/Allegro, building diode libraries and parts for diodes such as zener, varactor, Schottky, tunnel, LED, photodiode, and bridge rectifier.
Explore creating IEEE standard transformer symbols in Cadence OrCAD/Allegro, including windings, pins, positive/negative inputs and outputs, center tap, and various input-output configurations.
Learn to create IEEE standard transistor symbols, including PNP and P-channel depletion-mode MOSFET and an N-channel power MOSFET, by building an OrCAD capture library and updating schematic symbols.
Create a two-pin motor symbol in the OrCAD/Allegro miscellaneous library by drawing a circle with an ellipse, adding plus and minus pins labeled M, and inserting it into a schematic.
Create mic and speaker symbols in Cadence OrCAD/Allegro, adding pins for plus and minus, drawing boxes and connecting lines, and placing them in the miscellaneous library for PCB schematics.
Learn IEEE standard IC symbol creation using manual, pin array, and spreadsheet methods, illustrated with a 555 timer, covering pins, pin properties, and library integration.
Create quad ic symbols with four-side pins following the ieee standard using manual, pin array, and spreadsheet methods, including top center pin placement and anticlockwise pin numbering.
Learn to start a fresh Cadence OrCAD/Allegro pcb project, prepare schematics across pages, build symbols from libraries, organize folders, and wire a power supply circuit.
Learn to use the selection filter in Cadence OrCAD/Allegro to selectively copy, delete, and edit parts, nets, power and ground, and pins, with global connectors like five volt DC VCC.
Understand off grid element issues in Cadence OrCAD/Allegro by examining how grid spacing and pointer snap to grid affect wiring, component placement, and drc, emphasizing on-grid connections.
Learn how annotations in schematic automatically assign references such as R1, R2, and R5, reset them to question marks, and reorder with left-to-right, top-to-bottom incremental updates in Cadence OrCAD/Allegro.
Master net naming and global connections in Cadence OrCAD/Allegro by naming nets, aligning wires to the grid, and applying consistent junction labels.
Master multi-page schematic preparation for PCB design using Cadence OrCAD/Allegro, advancing from basics to expert level.
Learn to create and manage buses and off-page connectors in Cadence OrCAD/Allegro, including manual and auto connection methods, net naming, and cross-page bus wiring.
Learn to prepare a bill of materials for PCB design in Cadence OrCAD/Allegro, from basics to expert level, part 1.
Develop a complete BOM for Cadence OrCAD/Allegro by capturing item, quantity, reference, manufacturer details, part numbers, mounting type, package, price, and linked datasheets, and prepare BOM exports.
Decode imperial and metric component codes to extract footprints and dimensions, apply decoding rules, and perform unit conversions in Cadence OrCAD/Allegro per IPC standards.
Design precise PCB footprints with correct top view dimensions, layer management, and soldermask considerations. Apply solderpaste requirements to ensure reliable soldering within Cadence OrCAD/Allegro.
Learn to create a solder pad for a surface mount device using Padstack Editor in Cadence OrCAD/Allegro, including footprint setup, land patterns, and mask configurations.
Learn to use the pcb editor for footprint creation and default setups, linking footprint folders, naming drawings, selecting package symbols, and configuring origin, units, and extents.
Position two pads in a footprint using the PCB editor by centering each pin and spacing them 5.4 mm apart on the x axis, with pin numbers and labels.
Create assembly drawings in Cadence OrCAD/Allegro by building assembly lines, using 90-degree lines, and aligning to datasheet dimensions (6.3 by 3.2) with labeled references.
Explore silkscreen drawing methods and tips for pcb design in cadence orcad/allegro. Learn to set print boundaries, maintain clearances from components, and label with references and names on silk screen.
Place bound drawing methods teach you to assign component height by referencing the assembly and datasheet, define the package height and area in 2d, then generate the 3d layout.
Master design for assembly (DFA) rules to prevent component collisions and ensure proper clearances between parts. Learn how IPC standards guide spacing, assembly-friendly layouts, and reliable testing in PCB design.
Work with footprint level routing restrictions in Cadence OrCAD/Allegro, using keep-out regions and boundary shaping to ensure routing stays outside restricted areas and avoids crowding between footprints.
Learn the complete SMD footprint design process in Cadence OrCAD/Allegro, from defining metric sizes and origin to adding assembly features and generating accurate drawings.
Create a PTH footprint with the package symbol wizard in Cadence OrCAD/Allegro, detailing drill diameters and CFR-based constraints.
Design a single-row male header footprint in Cadence OrCAD/Allegro using the datasheet, set 2.54 mm spacing, apply pads, relief, silkscreen, and assembly considerations.
Explore creating a SOT-223 footprint in Cadence OrCAD/Allegro, including 3D and 2D views, footprint download, geometry setup, and proper silkscreens and placement workflows.
Create an SOIC footprint in Cadence OrCAD/Allegro with the package wizard, using datasheet dimensions, anticlockwise pin numbering, and a 1.1 by 0.6 body.
Create a PDIP footprint in Cadence OrCAD/Allegro using the Package Wizard, mastering true footprint dimensions, square and round pad layouts, and assembly considerations for IC footprints such as IP 51018.
Learn how to create a PLCC footprint using the wizard, defining pin one, center spacing, and assembly area details to ensure accurate pcb layout.
Design a ball grid array full-matrix footprint in Cadence OrCAD/Allegro, using a 14x14 ball pattern with 0.48 mm pads and 80% ball sizing, and visualize the bottom view.
Learn to design irregular shoulder pads in the pcb editor, convert shapes to shape symbols, and build footprints by importing them into the pad stack editor for solder pads and geometry.
Complete footprint assignments using manual methods, study datasheets and XML, download practice data sheets, and train on connectors, rectifiers, and related logic in Cadence OrCAD/Allegro.
Assign footprints to schematic symbols in Cadence OrCAD/Allegro, validate mappings with datasheets, and run electrical and physical DRC to ensure zero errors across multi-page schematics.
Create and assign footprints for schematic parts in Cadence OrCAD/Allegro, linking footprints to symbols and configuring resistor and capacitor footprints to validate connectivity.
Map pins and pads to footprints in Cadence OrCAD/Allegro, ensuring symbol and footprint match and the two-footprint limit before switching to PCB.
Explore pins and pads mapping in Cadence OrCAD/Allegro, align schematic symbols with PCB footprints, and resolve logical versus physical footprint mismatches to ensure proper connectivity.
Learn to create and edit PCB board shapes in Cadence OrCAD/Allegro, converting schematic to board, setting up footprints, defining outlines, and using line and dimension tools with millimeter units.
Learn how to import and export DXF files to define PCB board shapes in Cadence OrCAD/Allegro, manage extents and layers, and export outlines for library use.
Learn package keeping and keep-out rules for board design, ensuring footprints and components stay inside the PCB boundary with proper 14 mil clearance from the board edge.
Apply route keep-out restrictions inside the PCB using package keep-out and keep-in rules; route within the board area, respect edges, and use layers to enforce constraints.
Learn how to import non-plated thru holes (npth) into Cadence OrCAD/Allegro, configure library options and advanced settings, and place mounting holes precisely using origin coordinates and x/y distances.
Learn to manually place components on PCB using placement lists, filters by reference designator or value, and advanced options to position and manage unplaced components in Cadence OrCAD/Allegro.
Learn to create and edit rooms on a PCB design, define room outlines on board or schematic level, place components inside rooms, and manage top or bottom side placements.
Create rooms from schematic to pcb, export and place components inside rooms, using manual and automatic quick place methods, and configure room properties and selection filters for multi-page schematics.
Create and assign room properties to schematic components in Cadence Allegro, group parts into rooms (microcontroller, PSU, USB, LCD, keypad), then place by room and export the netlist.
Apply place replicate to quickly duplicate placement for similar circuits, align text, and apply replicated layouts to other components for faster PCB design in Cadence Allegro.
Welcome to "PCB Design in Cadence OrCAD/Allegro: Basics to Expert level".
PCB Design and electronics circuits are basements for all type of electronics products. PCBs are derived from the analog and digital circuits which are prepared according to the application required. Printed circuit boards are the main pillars of the Electronics world. Every Electronics products has PCB inside it, from consumer gadgets like computers, smart phones and gaming consoles to industry and even high-tech products.
"Welcome to our comprehensive online PCB Design course, a journey that will take you from the basics to an expert level in PCB design using the powerful Cadence suite of tools - OrCAD and Allegro. This course is designed to equip you with the knowledge and skills needed to create professional-grade Printed Circuit Boards (PCBs).
The demand for PCB (Printed Circuit Board) design services in the market has been steadily increasing due to several factors:
Electronics Industry Growth: The proliferation of electronics in various sectors such as consumer electronics, automotive, aerospace, healthcare, and IoT has led to an increased demand for PCBs.
Miniaturization: As electronic devices become smaller and more compact, the need for intricate PCB designs to accommodate complex circuitry within limited space has risen.
Technology Advancements: Advancements in technology, such as the Internet of Things (IoT), 5G connectivity, and wearable devices, require innovative PCB designs to support their functionalities.
Rapid Prototyping: The trend towards rapid prototyping and shortening product development cycles necessitates efficient PCB design services to quickly iterate and test new designs.
Customization: Industries increasingly require customized PCBs tailored to their specific needs, which drives demand for PCB design services capable of delivering bespoke solutions.
Outsourcing Trends: Many companies prefer to outsource their PCB design requirements to specialized service providers to leverage expertise, reduce costs, and accelerate time-to-market.
Green Initiatives: There's a growing emphasis on environmentally friendly PCB designs, leading to demand for designers who can develop energy-efficient and recyclable PCBs.
Why Choose Our PCB Design Course?
Our course is the ultimate choice for individuals who are passionate about PCB design or wish to establish a career in this field. Here's what sets us apart:
In-Depth PCB Design Knowledge: We provide a deep and thorough understanding of PCB design principles, covering everything from the fundamental concepts to advanced techniques.
Comprehensive Tool Training: Gain mastery over the industry-standard OrCAD and Allegro tools by Cadence. Learn how to create schematics using OrCAD Capture, design footprints with Package Editor, and craft intricate board layouts with PCB Editor.
Online Education, Your Way: Experience the convenience of online learning. Our course is designed to be flexible, allowing you to learn at your own pace, at any time and from anywhere in the world.
Best-in-Class Instruction: Learn from experienced instructors with extensive expertise in PCB design. Benefit from their real-world industry insights and best practices.
Practical Projects: Apply your newly acquired knowledge to real-world projects, ensuring you develop the practical skills needed to excel in the industry.
Course Highlights:
PCB Design Fundamentals: Start with the basics of PCB design, including understanding components, schematics, and layout principles.
OrCAD Overview: Dive into OrCAD's capabilities through OrCAD Capture, and learn to create comprehensive schematics for your PCB projects.
Allegro Mastery: Transition to Allegro, delving into advanced features for complex PCB layouts, and create footprints with ease using Package Editor.
Professional-Grade Design: Progress to creating intricate PCB layouts with precision, while learning how to troubleshoot and optimize your designs for peak performance.
Hands-On Practice: Our course includes practical projects and exercises that reinforce your learning. This practical experience ensures you can confidently tackle real-world PCB design challenges.
Expert Guidance: Access guidance and support from our experienced instructors who are dedicated to your success.
Why PCB Design Matters:
PCB design is at the heart of the modern electronics industry. As technology advances, the demand for skilled PCB designers who can create efficient and compact circuit boards continues to grow. This course will empower you to meet this demand.
Start Your Journey Today:
Join us on your path to becoming a PCB design expert. This course equips you with the knowledge, tools, and hands-on experience to stand out in the field. Whether you aspire to work for top electronics companies, launch your PCB design business, or embark on a personal project, this course is your essential stepping stone.
Enroll Now:
Don't miss the opportunity to access the best PCB design education available online. Enroll now and take the first step toward mastering PCB design with OrCAD, Allegro, and Cadence. Your path to expertise in PCB design begins here!"
Required eligibility:
Diploma in Electrical or Electronics & Communication.
BE/BTech. in Electrical or Electronics & Communication.
BSc/MSc in Electronics & Communication.
ME/MTech. (E&CE) in Communication.
PCB Design Course Content is given below in brief:
Schematic Design:
Basic Electronics theory.
Basics of Circuit designing.
Schematic design preparation.
Schematic part editing and creation.
Net list and Net class creation.
Bill Of Material generation (BOM).
Electrical Rule Checking.
Footprint Creation:
Through hole footprint creation.
Surface Mount Device footprint creation.
BGA/PGA footprint creation.
Board Designing:
Board size and shape creation.
Component placements.
PCB Routing.
Plane creation.
Design rule checking.
Gerber generation.
Skills you gain after the course completion:
Basic Electronics and Electronic components expertise.
Circuit Designing (Power management circuit designing)
Circuit Simulation for best understanding of the subject.
Tools/Software Expertise.
Basic design module practice up to 2-Layers.
Advanced design module practice up to 6-Layers.
Design expertise:
Assignments consists single and double sided PCB.
Assignments consists 2-Layers, 4-Layers and 6-Layers design.
Library Module:
Symbol and Footprint design for all types of packages.
Normal Placements & critical placement techniques
Normal Routing and Critical Routing techniques.
Gerber Creation.
Benefits of choosing PCB Design Course:
Strong hold in basic electronics.
Circuit Design capability.
Circuit analysis & ERC.
Components knowledge.
Power Supply designing.
PCB-CAD tool expertise.
Expert in library creation.
Multi-layer PCB designing.
Gerber Creation.