WEBENCH® Coil Designer

Slides:



Advertisements
Similar presentations
Introductory Circuit Analysis Robert L. Boylestad
Advertisements

Operating the Harmonizer
EMLAB 1 4. Linear wire antenna. EMLAB 2 Simulation of dipole antennas.
On-chip Inductors: Design and Modeling UMD Semiconductor Simulation Lab March 2005.
Switching Power Supply Component Selection
Here’s a partial schematic we’ll use to illustrate the advantage of a ground plane. The idea is that an output pin on the microprocessor is driving an.
1 QED In Vivo USB Input Output Box configuration This tutorial contains a number of instructions embedded in a great deal of explanation. Procedures that.
Chapter 22 Alternating-Current Circuits and Machines.
Layout Considerations of Non-Isolated Switching Mode Power Supply
Rotating Coils - Giordana Severino – Rotating Coils PACMAN meeting Printed Circuit Coils – Future developments.
Microwave Amplifier Design Blog by Ben (Uram) Han and Nemuel Magno Group 14 ENEL 434 – Electronics 2 Assignment
VIA Bravo Network Analyzer.
Alternating Current Circuits
Copyright © 2009 Pearson Education, Inc. Chapter 30 Inductance, Electromagnetic Oscillations, and AC Circuits.
1 Wireless power for mobile phones - System overview Nov 25, 2012 V1.1.
Resonance Topics Covered in Chapter : The Resonance Effect 25-2: Series Resonance 25-3: Parallel Resonance 25-4: Resonant Frequency: Chapter 25.
Microwave Amplifier Design Blog by Ben (Uram) Han and Nemuel Magno Group 14 ENEL 434 – Electronics 2 Assignment
Speeding up transformer design through latest Web tool 29/Nov./ Speeding up transformer design through latest Web tool.
1/39 Passive components and circuits - CCP Lecture 11.
Logic Consolidator Quick Start Guide. Logic Consolidator Easy way to demonstrate cost savings with CPLD – Shows worst case scenario Device size Cost of.
Inductance and AC Circuits. Mutual Inductance Self-Inductance Energy Stored in a Magnetic Field LR Circuits LC Circuits and Electromagnetic Oscillations.
Copyright © 2009 Pearson Education, Inc. Chapter 33 Inductance, Electromagnetic Oscillations, and AC Circuits Part II.
Unit 1: Plotting DT2510: Advanced CAD Methods. Identifying the user interface: Application menu Quick Access toolbar InfoCenter Ribbon Drawing window.
Chapter 31 Lecture 33: Alternating Current Circuits: II HW 11 (problems): 30.58, 30.65, 30.76, 31.12, 31.26, 31.46, 31.56, Due Friday, Dec 11. Final.
Review (Only leave this in if it makes sense) Get white boards out for all this lecture) How long does it take a 5uF capacitor in a series RC circuit to.
Alternating Current Circuits. AC Sources  : angular frequency of AC voltage  V max : the maximum output voltage of AC source.
Radio Frequency Osc.. 2- RADIO-FREQUENCY OSCILLATORS Radio-frequency (RF) oscillators must satisfy the same basic criteria for oscillation as was discussed.
1© Manhattan Press (H.K.) Ltd Series combination of resistors, capacitors and inductors Resistor and capacitor in series (RC circuit) Resistor and.
Passive Integrated Elements Robert H. Caverly, Villanova University The creation of these notes was supported by a Grant from The National Science Foundation.
RF Systems Target Radio-Frequencies Wireless communication systems require specific radio- frequency integrated circuits, which often require optimum performances.
전자파 연구실 1. Fundamentals. 전자파 연구실 1.1 Frequency and time Passive circuit elements is emphasized in high speed digital design : Wires, PCB, IC- package.
FUNCTION GENERATOR.
Announcements Midterm Exam next Wednesday Exam starts at 6 PM, ~1 hr. Closed book, one page of notes Bring a calculator (not phone, computer, iPad, etc.)
Mechatronics Putting It All Together A Quick Look Into PCB Design July 17, 2013.
Hanyang University 1/13 Resonance Coil Review Wonhong Jeong
Power Distribution Copyright F. Canavero, R. Fantino Licensed to HDT - High Design Technology.
Created by Tim Green, Art Kay Presented by Peggy Liska
Eagle PCB Tutorial Josh Fromm EE 475, April 11th
Diode Detector Simulation, Design and Measurement
Measurements &Testing (1)a CSE 323a
GaAs Process & Devices Anurag Nigam.
Dr Andrew French P5/6 Winchester College
Diode Detector Simulation, Design and Measurement
PSCAD models.
PExprt Modeling Procedure
Lesson 23 Managing and Reporting Database Information
Beamformer Feeding Board Design and IC Package EM Simulation
Textbook Detection System With Radio-Frequency Identification
AC Circuits AC Current peak-to-peak and rms Capacitive Reactiance
Oscillators with LC Feedback Circuits
Microwave Passives Anurag Nigam.
Amplifier Designer Stealth Release.
4. Linear wire antenna.
3D Vertical Solenoid Inductor by Electrodeposition Technique
Harmonic Distortion Analyzer, Wave Analyzer and Function Generator
TOPIC 3: FREQUENCY SELECTIVE CIRCUITS
Indent markers In some cases, you may want to have more control over indents. Word provides indent markers that allow you to indent paragraphs to.
Statistical Analysis with Excel
Electric Circuits Fundamentals
Statistical Analysis with Excel
Digital instrumentation – Unit 1
Microsoft Excel 101.
ELECTRONICS II 3rd SEMESTER ELECTRICAL
Alternating Current Circuits
Topic 9 – Exploring Scenarios Lesson 1 - Computational Forms
Module V Wave Analyzers
Microsoft Office Illustrated Fundamentals
Inductor Arising from Faraday's law, the inductance L may be defined in terms of the emf generated to oppose a given change in current:
Key Applications Module Lesson 14 — Working with Tables
Tutorial Introduction to help.ebsco.com.
Presentation transcript:

WEBENCH® Coil Designer Generate Custom Inductance to Digital Converter (LDC) Coil Layouts in Seconds

Inductive Sensing vs Coil Designer   WEBENCH® Inductive Sensing Designer WEBENCH® Coil Designer Enter max sensing distance Yes Enter desired resolution Enter coil shape Enter target material and size Calculate resolution based on impedance or inductance Helps you select the best sensing IC Selects the LC sensor capacitor Export coil to CAD tools Automatically designs coil and calculates resolution Enter coil diameter, trace width and trace spacing Enter number of PCB layers and spacing Enter coil number of turns Enter sensing IC and LC sensor capacitance Enter copper thickness Generates key operating values such as total inductance, sensor frequency, Q-factor,  AC resistance, fill ratio, inner diameter Generates inductance

Coil Designer vs. Inductive Sensing Designer Difference 1. Input to the tool Shape, Diameter, Turns, Layer, Sensing distance, target diameter, target material, resolution Inductive Sensing Designer is used to find the inductance required and Coil Designer is used for designing a custom coil of a given specifications 2. Output of the tool Coil specific operating values, layout Resolution metrics, operating values, layout Inductive Sensing tool provides a layout of a coil of a specific shape and size for LDC application where as Coil Designer can provide coil geometry/layout of various shapes and customized coil parameters. 3. Method of calculation Equation Simulation The inductance value can slightly vary in case of Coil Designer as it is based on equations and not simulation. 4. Usage General Axial distance Coil Designer is generic and can be used for any application including axial distance.

WEBENCH® Coil Designer http://webench.ti.com/wb5/LDC Export to CAD tools Choose LDC part Choose coil type View resulting inductance and other key parameters Enter parameters for coil Now supports LDC0851 for stacked coils!

Hands-on Demo Design Problem: Goals: Customer has used LDC Designer to get the following desired characteristics of the coil: LDC1612 Capacitance: 113pF Inductance: 183uH Frequency: 1MHz Layers: 2 Generate and export a coil that meets the specifications 5

WEBENCH® Coil Designer for LDC ICs The WEBENCH® Inductive Sensing Design tools enable quick and easy way to generate custom PCB coils for various LDC applications. The LDC Design tools consist of WEBENCH® Inductive Sensing Designer and WEBENCH® Coil Designer. WEBENCH® Inductive Sensing Designer is a tool focused on axial position sensing applications and allows users to generate PCB coils for desired LDC measurement and resolution capabilities. WEBENCH® Coil Designer enables further coil customization by taking coil design parameters such as shape, size, and number of turns as input and directly computes performance parameters such as inductance and Q. In both these tools, the user can then export the custom LDC coil into their preferred PCB CAD environment.

WEBENCH® Coil Designer Features Support for multiple coil shapes – choices include circular, square, hexagonal, and octagonal. Capability to fine tune coil geometries Quickly analyze coil characteristics based on the coil settings. Export PCB layout of coil to a variety of CAD formats

Recommended Coil Design Flow Determine the maximum size inductor that can physically be used in the application, and set the Dout value to that size. Based on the PCB manufacturing rules, set: a. Trace Width and Trace Space to the minimum permitted. This value is typically 4mils (0.1mm) or 6mils(0.15mm). b. Copper thickness; this is typically 1oz-cu (~35µm). Thicker is better. Set the Number of Layers to match the number of board layers in the design. Set the Capacitance- the range of 500pF to 2nF is typically near the optimum unless a specific sensor frequency is needed. Adjust the capacitance as needed if your sensor frequency is not with the device limits. Set the number of turns so that the ratio of Din/Dout is >0.3. Export the design into the desired format.

Step by Step: Select the LDC Part Choose one of the parts for which you intend to design the coil. Sensor Frequency and Resonance Impedance and Voltage

Step by Step: Select the Coil Shape Based on need select the coil shape - choices include Square, Circular, Hexagonal and Octagonal shapes.

Select Coil Geometry Change the Coil Parameters like Layers, Turns, Shapes, Trace width and other parameters. They can be changed using the text box by entering any required value or using the step increment or decrement option provided.

Analyze Coil Design Analyze the coil output parameters such as Inductance of the coil, Inner diameter, Q factor etc. shown in the grid for corresponding input values. Option is provided to click on more data which shows more output and input parameters and it can be used for deeper coil analysis.

Analyze Coil Design (Cont.) The Graph between different parameters provides an understanding of how the inductance and other parameters of the coil vary with different inputs.

Export Coil Design Export the coil into one of 5 popular CAD tools shown here and you're ready to generate your Gerber files. Export coil option is currently supported for only 2 and 4 layers. Add exported layouts

Hands On Problems 1) Stacked coil problem Go to hands on problem set for Signal Chain Work the problems from the following: Coil Designer 1) Stacked coil problem 2) Stacked coil problem with max C

Exported Layout from Coil Designer in Altium Designer

Overview of Spiral Inductance Calculation Planar spiral inductors are less expensive than either chip or coil inductors for PCB (printed-circuit-board)-based designs. Accuracy in designing a spiral inductor is important because it is difficult to modify the inductor once you have built it on the PCB. Some formulas are available for calculating the spiral inductor for RF-IC applications with inductance of less than 100 nH on a single-layer design. Only few published paper or report accurately calculates spiral inductors with a large value in multiple layers. This Inductance calculator is based on the excel sheet provided by PL which is based on this EDN article.

Advantages of WEBENCH® Coil Designer One of the first online tool for multilayer inductance calculation and design and will give TI a competitive advantage Enhanced features for existing tools when used with Inductance Sensing Designer Could be used for Power Applications and Filters which need a multi-layer PCB inductor design and layout.