Encyclopedia Of Electronic Components Volume 3

Author: Charles Platt
Publisher: Maker Media, Inc.
ISBN: 144933427X
Size: 75.79 MB
Format: PDF, Kindle
View: 5519
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Want to know how to use an electronic component? This third book of a three-volume set includes key information on electronics parts for your projects--complete with photographs, schematics, and diagrams. You'll learn what each one does, how it works, why it's useful, and what variants exist. No matter how much you know about electronics, you'll find fascinating details you've never come across before. Perfect for teachers, hobbyists, engineers, and students of all ages, this reference puts reliable, fact-checked information right at your fingertips--whether you're refreshing your memory or exploring a component for the first time. Beginners will quickly grasp important concepts, and more experienced users will find the specific details their projects require. Volume 3 covers components for sensing the physical world, including light, sound, heat, motion, ambient, and electrical sensors. Unique: the first and only encyclopedia set on electronic components, distilled into three separate volumes Incredibly detailed: includes information distilled from hundreds of sources Easy to browse: parts are clearly organized by component type Authoritative: fact-checked by expert advisors to ensure that the information is both current and accurate Reliable: a more consistent source of information than online sources, product datasheets, and manufacturer's tutorials Instructive: each component description provides details about substitutions, common problems, and workarounds Comprehensive: Volume 1 covers power, electromagnetism, and discrete semi-conductors; Volume 2 includes integrated circuits, and light and sound sources; Volume 3 covers a range of sensing devices.

Encyclopedia Of Electronic Components Vol 3 Charles Platt Fredrik Jansson 2016

Author: Maker Media Publishing
Publisher: Bukupedia
ISBN: 1449334318
Size: 75.92 MB
Format: PDF
View: 5274
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This third and final volume of the Encyclopedia of Electronic Components is devoted entirely to sensors. Two factors have caused very significant changes in the field of sensors since the 1980s. First, features such as antilock braking, airbags, and emissions controls stimulated the development of low-priced sensors for automotive applications. Many of these sensors were fabricated in silicon as MEMS (microelectromechanical) devices. The second wave began in 2007 when MEMS sensors were installed in the iPhone. A modern phone may contain almost a dozen different types of sensors, and their size and price have been driven down to a point that would have been unimaginable 20 years previously. Many MEMS sensors are now as cheap as basic semiconductor components such as a voltage regulator or a logic chip, and they are easy to use in conjunction with microcontrollers. In this Encyclopedia, we have allocated significant space to this segment of the market, hoping that the specific products that we have chosen will remain popular and available for at least the next decade. In addition, we have devoted space to older components where durability has been proven. Purpose While much of the information in this volume can be found dispersed among datasheets, introductory texts, Internet sites, and technical briefings published by manufacturers, we believe there is a real need for a durable resource that assembles all the relevant data in one place, properly organized and verified, including details that may be hard to find elsewhere. This volume may also serve a useful purpose by attempting to categorize and classify components in a field that is remarkably chaotic. For example, is an object presence sensor different from a proximity sensor? Some manufacturers seem to think so; others disagree. Understanding the distinctions and the underlying principles can be important if you are trying to decide which sensor to use. Sensor terminology can also be confusing. To take another example, what is the difference between a reflective interrupter, a reflective object sensor, a reflective optical sensor, a reflective photointerrupter, and an opt-pass sensor? These terms are used in various datasheets to describe components that are all retroreflective sensors. Understanding the proliferating variety of terminology can be essential if you simply want to find something in a product index. As in volumes 1 and 2, this volume is organized by subject. For example, if you want to measure temperature, you’ll find the entries for a thermistor and a thermocouple next to each other, in an entire section devoted to the sensing of heat. This will help you to compare capabilities and choose the component that best suits your application. The subject path leading to each sensor is shown at the top of the first page of each entry. For gas flow rate, for instance, you would follow this path: fluid > gas > flow rate Note that the word “fluid” is properly used to include gases as well as liquids. Exceptions and Conflicts Unfortunately, some sensors are not easily categorized. There are four problems in this area. 1. What Does a Sensor Really Sense? A GPS chip is a radio receiver, picking up transmissions from satellites. Does this mean it should be categorized as a sensor of radio waves? No, its purpose is to tell you your location. Therefore, it is categorized as a location sensor. This leads to the first general rule: sensors are categorized by their primary purpose. Secondary purposes may be found in the index. 2. How Many Sensors Are in a Sensor? Many surface-mount chips perform more than one sensing function. For example, an inertial measurement unit (often identified by its acronym, IMU) can contain three gyroscope sensors and three accelerometers—and may contain three magnetometers, too. How should it be categorized? The answer is that an IMU will be mentioned in more than one entry in the Encyclopedia, because it performs more than one function; but it will not have its own separate entry, because each entry in the Encyclopedia is for a single primary sensing function. The names of multisensor chips are, of course, included in the index. 3. How Many Stimuli Can One Sensor Sense? A single sensing element may be used in multiple different types of sensors. The most notable example is the Hall-effect sensor, which can be found in magnetometers, object presence sensors, speed sensors, current sensors, and dozens more. Modern automobiles can contain Hall-effect sensors everywhere from the ignition system to the trunk-locking mechanism. If you are using a hard drive with rotating platters, it probably contains a Hall-effect sensor to monitor the speed of rotation. If you have a generic computer keyboard, each keypress is probably detected with a Hall-effect sensor. Bearing this in mind, how should a Hall-effect sensor be classified? And where should you expect to find an explanation of how it works? The answer is that where different types of components contain the same type of sensing element, the entry for each component will include a cross-reference to one location where the sensing element is explained in detail. This location will be chosen for its relevance. Thus, Hall-effect sensors are explained in the entry for object presence sensors, because this is their primary function. While it is true that a Hall-effect sensor works by detecting a magnetic field, that is not its most common application. 4. Too Many Sensors! Wikipedia lists more than 100 general types of sensors, and even that list is probably not complete. Consequently, we had to pick and choose. Some of the decisions may seem arbitrary, but all of them were made on the grounds of practicality. There were three principles for deciding what to include and what to leave out. xx Encyclopedia of Electronic Components Volume 3

Encyclopedia Of Electronic Components Charles Platt Fredrik Jansson 2016

Author: Maker Media Corporation
Publisher: Bukupedia
ISBN:
Size: 77.91 MB
Format: PDF, Mobi
View: 1525
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Preface This third and final volume of the Encyclopedia of Electronic Components is devoted entirely to sensors. Two factors have caused very significant changes in the field of sensors since the 1980s. First, features such as antilock braking, airbags, and emissions controls stimulated the development of low-priced sensors for automotive applications. Many of these sensors were fabricated in silicon as MEMS (microelectromechanical) devices. The second wave began in 2007 when MEMS sensors were installed in the iPhone. A modern phone may contain almost a dozen different types of sensors, and their size and price have been driven down to a point that would have been unimaginable 20 years previously. Many MEMS sensors are now as cheap as basic semiconductor components such as a voltage regulator or a logic chip, and they are easy to use in conjunction with microcontrollers. In this Encyclopedia, we have allocated significant space to this segment of the market, hoping that the specific products that we have chosen will remain popular and available for at least the next decade. In addition, we have devoted space to older components where durability has been proven. Purpose While much of the information in this volume can be found dispersed among datasheets, introductory texts, Internet sites, and technical briefings published by manufacturers, we believe there is a real need for a durable resource that assembles all the relevant data in one place, properly organized and verified, including details that may be hard to find elsewhere. This volume may also serve a useful purpose by attempting to categorize and classify components in a field that is remarkably chaotic. For example, is an object presence sensor different from a proximity sensor? Some manufacturers seem to think so; others disagree. Understanding the distinctions and the underlying principles can be important if you are trying to decide which sensor to use. Sensor terminology can also be confusing. To take another example, what is the difference between a reflective interrupter, a reflective object sensor, a reflective optical sensor, a reflective photointerrupter, and an opt-pass sensor? These terms are used in various datasheets to describe components that are all retroreflective sensors. Understanding the proliferating variety of terminology can be essential if you simply want to find something in a product index. Organization As in volumes 1 and 2, this volume is organized by subject. For example, if you want to measure temperature, you’ll find the entries for a thermistor and a thermocouple next to each other, in an entire section devoted to the sensing of heat. This will help you to compare capabilities and choose the component that best suits your application. The subject path leading to each sensor is shown at the top of the first page of each entry. For gas flow rate, for instance, you would follow this path: fluid > gas > flow rate Note that the word “fluid” is properly used to include gases as well as liquids. Exceptions and Conflicts Unfortunately, some sensors are not easily categorized. There are four problems in this area. 1. What Does a Sensor Really Sense? A GPS chip is a radio receiver, picking up transmissions from satellites. Does this mean it should be categorized as a sensor of radio waves? No, its purpose is to tell you your location. Therefore, it is categorized as a location sensor. This leads to the first general rule: sensors are categorized by their primary purpose. Secondary purposes may be found in the index. 2. How Many Sensors Are in a Sensor? Many surface-mount chips perform more than one sensing function. For example, an inertial measurement unit (often identified by its acronym, IMU) can contain three gyroscope sensors and three accelerometers—and may contain three magnetometers, too. How should it be categorized? The answer is that an IMU will be mentioned in more than one entry in the Encyclopedia, because it performs more than one function; but it will not have its own separate entry, because each entry in the Encyclopedia is for a single primary sensing function. The names of multisensor chips are, of course, included in the index. 3. How Many Stimuli Can One Sensor Sense? A single sensing element may be used in multiple different types of sensors. The most notable example is the Hall-effect sensor, which can be found in magnetometers, object presence sensors, speed sensors, current sensors, and dozens more. Modern automobiles can contain Hall-effect sensors everywhere from the ignition system to the trunk-locking mechanism. If you are using a hard drive with rotating platters, it probably contains a Hall-effect sensor to monitor the speed of rotation. If you have a generic computer keyboard, each keypress is probably detected with a Hall-effect sensor. Bearing this in mind, how should a Hall-effect sensor be classified? And where should you expect to find an explanation of how it works? The answer is that where different types of components contain the same type of sensing element, the entry for each component will include a cross-reference to one location where the sensing element is explained in detail. This location will be chosen for its relevance. Thus, Hall-effect sensors are explained in the entry for object presence sensors, because this is their primary function. While it is true that a Hall-effect sensor works by detecting a magnetic field, that is not its most common application. 4. Too Many Sensors! Wikipedia lists more than 100 general types of sensors, and even that list is probably not complete. Consequently, we had to pick and choose. Some of the decisions may seem arbitrary, but all of them were made on the grounds of practicality. There were three principles for deciding what to include and what to leave out.

Sensors

Author: Kourosh Kalantar-zadeh
Publisher: Springer Science & Business Media
ISBN: 1461450527
Size: 68.89 MB
Format: PDF, Docs
View: 3269
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Sensors: An Introductory Course provides an essential reference on the fundamentals of sensors. The book is designed to help readers in developing skills and the understanding required in order to implement a wide range of sensors that are commonly used in our daily lives. This book covers the basic concepts in the sensors field, including definitions and terminologies. The physical sensing effects are described, and devices which utilize these effects are presented. The most frequently used organic and inorganic sensors are introduced and the techniques for implementing them are discussed.

Make More Electronics

Author: Charles Platt
Publisher: Maker Media, Inc.
ISBN: 1449344003
Size: 40.74 MB
Format: PDF, ePub
View: 7078
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Want to learn even more about electronics in a fun, hands-on way? If you finished the projects in Make: Electronics, or if you're already familiar with the material in that book, you're ready for Make: More Electronics. Right away, you'll start working on real projects, and you'll explore all the key components and essential principles through the book's collection of experiments. You'll build the circuits first, then learn the theory behind them! This book picks up where Make: Electronics left off: you'll work with components like comparators, light sensors, higher-level logic chips, multiplexers, shift registers, encoders, decoders, and magnetic sensors. You'll also learn about topics like audio amplification, randomicity, as well as positive and negative feedback. With step-by-step instructions, and hundreds of color photographs and illustrations, this book will help you use -- and understand -- intermediate to advanced electronics concepts and techniques.

Easy Electronics

Author: Charles Platt
Publisher: Maker Media, Inc.
ISBN: 1680454455
Size: 69.35 MB
Format: PDF, ePub, Mobi
View: 4358
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This is the simplest, quickest, least technical, most affordable introduction to basic electronics. No tools are necessary--not even a screwdriver. Easy Electronics should satisfy anyone who has felt frustrated by entry-level books that are not as clear and simple as they are supposed to be. Brilliantly clear graphics will take you step by step through 12 basic projects, none of which should take more than half an hour. Using alligator clips to connect components, you see and hear immediateresults. The hands-on approach is fun and intriguing, especially for family members exploring the projects together. The 12 experiments will introduce you to switches, resistors, capacitors, transistors, phototransistors, LEDs, audio transducers, and a silicon chip. You'll even learn how to read schematics by comparing them with the circuits that you build. No prior knowledge is required, and no math is involved. You learn by seeing, hearing, and touching. By the end of Experiment 12, you may be eager to move on to a more detailed book. Easy Electronics will function perfectly as a prequel to the same author's bestseller, Make: Electronics. All the components listed in the book are inexpensive and readily available from online sellers. A very affordable kit has been developed in conjunction with the book to eliminate the chore of shopping for separate parts. A QR code inside the book will take you to the vendor's web site. Concepts include: Transistor as a switch or an amplifier Phototransistor to function as an alarm Capacitor to store and release electricity Transducer to create sounds from a timer Resistor codes A miniature light bulb to display voltage The inner workings of a switch Using batteries and resistors in series and parallel Creating sounds by the pressure of your finger Making a matchbox that beeps when you touch it And more. Grab your copy and start experimenting!

Encyclopedia Of Electronic Components Volume 2

Author: Charles Platt
Publisher: Maker Media, Inc.
ISBN: 1449334148
Size: 34.95 MB
Format: PDF
View: 5492
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Want to know how to use an electronic component? This second book of a three-volume set includes key information on electronics parts for your projects--complete with photographs, schematics, and diagrams. You'll learn what each one does, how it works, why it's useful, and what variants exist. No matter how much you know about electronics, you'll find fascinating details you've never come across before. Perfect for teachers, hobbyists, engineers, and students of all ages, this reference puts reliable, fact-checked information right at your fingertips--whether you're refreshing your memory or exploring a component for the first time. Beginners will quickly grasp important concepts, and more experienced users will find the specific details their projects require. Volume 2 covers signal processing, including LEDs, LCDs, audio, thyristors, digital logic, and amplification. Unique: the first and only encyclopedia set on electronic components, distilled into three separate volumes Incredibly detailed: includes information distilled from hundreds of sources Easy to browse: parts are clearly organized by component type Authoritative: fact-checked by expert advisors to ensure that the information is both current and accurate Reliable: a more consistent source of information than online sources, product datasheets, and manufacturer's tutorials Instructive: each component description provides details about substitutions, common problems, and workarounds Comprehensive: Volume 1 covers power, electromagnetism, and discrete semiconductors; Volume 2 includes LEDs, LCDs, audio, thyristors, digital logic, and amplification; Volume 3 covers a range of sensing devices.

Complete Electronics Self Teaching Guide With Projects

Author: Earl Boysen
Publisher: John Wiley & Sons
ISBN: 1118282329
Size: 62.43 MB
Format: PDF
View: 7134
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An all-in-one resource on everything electronics-related! For almost 30 years, this book has been a classic text for electronics enthusiasts. Now completely updated for today's technology, this latest version combines concepts, self-tests, and hands-on projects to offer you a completely repackaged and revised resource. This unique self-teaching guide features easy-to-understand explanations that are presented in a user-friendly format to help you learn the essentials you need to work with electronic circuits. All you need is a general understanding of electronics concepts such as Ohm's law and current flow, and an acquaintance with first-year algebra. The question-and-answer format, illustrative experiments, and self-tests at the end of each chapter make it easy for you to learn at your own speed. Boasts a companion website that includes more than twenty full-color, step-by-step projects Shares hands-on practice opportunities and conceptual background information to enhance your learning process Targets electronics enthusiasts who already have a basic knowledge of electronics but are interested in learning more about this fascinating topic on their own Features projects that work with the multimeter, breadboard, function generator, oscilloscope, bandpass filter, transistor amplifier, oscillator, rectifier, and more You're sure to get a charge out of the vast coverage included in Complete Electronics Self-Teaching Guide with Projects!

Getting Started With Sensors

Author: Kimmo Karvinen
Publisher: Maker Media, Inc.
ISBN: 1449367046
Size: 80.20 MB
Format: PDF, ePub
View: 293
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To build electronic projects that can sense the physical world, you need to build circuits based around sensors: electronic components that react to physical phenomena by sending an electrical signal. Even with only basic electronic components, you can build useful and educational sensor projects. But if you incorporate Arduino or Raspberry Pi into your project, you can build much more sophisticated projects that can react in interesting ways and even connect to the Internet. This book starts by teaching you the basic electronic circuits to read and react to a sensor. It then goes on to show how to use Arduino to develop sensor systems, and wraps up by teaching you how to build sensor projects with the Linux-powered Raspberry Pi.