This presentation serves as a valuable reference for studying the Network of IoT (nIoT) subject, specifically designed for students pursuing the M.Tech course under VTU, Belagavi.
Embedded System
Embedded systems are integrated system made up of computer hardware and software that performs a specific job. These embedded systems can operate independently or as part of a larger system and may require minimal or no human intervention to function. The use of embedded systems has become increasingly common in a wide range of industries due to their reliability, efficiency, and ability to perform tasks that may be too complex or time-consuming for humans to complete.
International Journal of Engineering Research and DevelopmentIJERD Editor
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Electrical, Electronics and Computer Engineering,
Information Engineering and Technology,
Mechanical, Industrial and Manufacturing Engineering,
Automation and Mechatronics Engineering,
Material and Chemical Engineering,
Civil and Architecture Engineering,
Biotechnology and Bio Engineering,
Environmental Engineering,
Petroleum and Mining Engineering,
Marine and Agriculture engineering,
Aerospace Engineering.
SENSORS, ACTUATORS, AND SMART OBJECTS IOTssuserfa1ab9
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Smart objects are any physical objects that contain
embedded technology to sense and/or interact with
their environment in a meaningful way by being
interconnected and enabling communication
among themselves or an external agent More specifically, a sensor measures some physical
quantity and converts that measurement reading into a
digital representation.
This document provides an overview of sensors, actuators, and smart objects which are fundamental building blocks of IoT networks. It defines sensors as devices that measure physical quantities and convert them to digital representations. Actuators receive control signals and trigger physical effects. Smart objects contain embedded technology to sense and interact with their environment. They have processing units, sensors/actuators, communication devices, and power sources. The document discusses various sensor and actuator categories and trends. It also covers wireless sensor networks, communication protocols, and connecting smart objects in IoT.
1) Sensors are devices that detect physical quantities and convert them into signals that can be measured. They are needed for industrial monitoring, safety, and automation.
2) Common sensors include position, proximity, range, touch, and force sensors. Position sensors like LVDT and RVDT convert linear or angular displacement into electrical signals.
3) Sensors have characteristics like range, sensitivity, accuracy, and response time that determine their effectiveness. Understanding sensor types and properties is important for robotics applications.
This document describes a prisoner surveillance system that uses various sensors to monitor inmates' health, location, and behavior. The system aims to improve oversight of prisons and ensure inmates' safety and rights are upheld. Sensors like heart rate, temperature, and alcohol monitors check inmates' health and detect drug/alcohol use. An accelerometer identifies sudden movements that could indicate attacks. Location is tracked using GPS. Data from the sensors is transmitted via WiFi to officers for real-time monitoring. The system seeks to strengthen accountability in prisons and prevent issues like abuse, unnecessary detention, or unhygienic conditions.
This document discusses Internet of Things (IoT) sensors and security. It begins with an introduction to how IoT connectivity has changed society and will continue to do so. IoT devices are predicted to grow significantly by 2020. The document then discusses what topics will be covered, including IoT sensors and security. It provides examples of common sensors like accelerometers, temperature sensors, light sensors, and MEMS sensors. It also discusses how sensor data is converted to digital data and transmitted. The document covers security objectives for IoT like authenticated senders and receivers. It identifies security issues for IoT applications and considerations around issues like multiple networks, long device lifecycles, and remote updates. Finally, it provides a checklist for
A sensor is a device or component that detects and measures physical properties or changes in the
environment and converts this information into a signal or data that can be interpreted or used.Transducer
A transducer is a device that converts one form of energy into another. It typically takes an input signal in
one form (such as electrical, mechanical, thermal, or optical) and transforms it into a different output
signal that can be used for measurement, control, or display purposes.
1. What are sensors, actuators and transducers. Give examples for each one.
2. Classify and explain sensors each one in detail
3. Explain sensors characteristics based on three fundamental properties.
4. List and explain all the considerations that must be incorporated during the sensing of critical
systems.
5. How is sensor resolution different from its accuracy?
6. List and explain different sensing types
7. Differentiate between scalar and vector sensors.
8. Differentiate between analog and digital sensors.
9. List and explain the factors that influence the choice of sensors.
10. What are actuators? List and explain the actuator types
11. Differentiate between hydraulic and pneumatic actuators with examples.
12. What are shape memory alloys (SMA)?
13. What are soft actuators?
14. What are the main features of shape memory polymers?
15. What are light activated polymers?
16. Explain actuator characteristics
1. Sensors allow machines and robots to monitor their surroundings in various ways and for many applications.
2. The document discusses different types of sensors like position, proximity, range sensors and their uses in industry, environment, and safety.
3. It also explains the characteristics and working principles of important position sensors like LVDT and RVDT, which can convert linear or angular displacement into electrical signals.
This document discusses IoT sensing and actuation. It defines transduction as the process of energy conversion from one form to another. Sensors convert various forms of energy into electrical signals, while actuators convert electrical signals into various forms of energy, typically mechanical energy. The document describes different types of sensors and their characteristics like resolution, accuracy, and precision. It also discusses sensor errors and deviations. Finally, it categorizes sensing into four types - scalar sensing, multimedia sensing, hybrid sensing, and virtual sensing - based on the nature of the environment being sensed.
Emerging Trends in Sensor Application in Industrial Scenario.pptxBikashDas76792
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The document discusses sensors and temperature sensors. It defines a sensor as a device that detects and responds to physical input from the environment and converts it into a readable signal. It then discusses different types of temperature sensors like thermocouples, thermistors, and RTDs that detect temperature changes by measuring properties like voltage, resistance, or current. Finally, it provides examples of infrared temperature sensors and optical pyrometers that can measure the temperature of moving or hot objects non-contactly and discusses common temperature sensor uses.
In an era where precision and efficiency are paramount, laser temperature sensors have emerged as a critical technology in various industries. From manufacturing to healthcare, these sensors provide accurate temperature measurements without direct contact with the object being measured. This blog delves into the workings of laser temperature sensors, their applications, advantages, and future trends.
This document provides an overview of smart objects and wireless sensor networks. It defines sensors and actuators as the fundamental building blocks of IoT networks that can measure and interact with the physical environment. Wireless sensor networks connect these smart objects wirelessly and face challenges related to limited device capabilities and network performance. Communication protocols like IEEE 802.15.4 and ZigBee are commonly used due to their support for low-power and low-bandwidth connected devices.
SENSORS, ACTUATORS, AND SMART OBJECTS IOTssuserfa1ab9
Ìý
Smart objects are any physical objects that contain
embedded technology to sense and/or interact with
their environment in a meaningful way by being
interconnected and enabling communication
among themselves or an external agent More specifically, a sensor measures some physical
quantity and converts that measurement reading into a
digital representation.
This document provides an overview of sensors, actuators, and smart objects which are fundamental building blocks of IoT networks. It defines sensors as devices that measure physical quantities and convert them to digital representations. Actuators receive control signals and trigger physical effects. Smart objects contain embedded technology to sense and interact with their environment. They have processing units, sensors/actuators, communication devices, and power sources. The document discusses various sensor and actuator categories and trends. It also covers wireless sensor networks, communication protocols, and connecting smart objects in IoT.
1) Sensors are devices that detect physical quantities and convert them into signals that can be measured. They are needed for industrial monitoring, safety, and automation.
2) Common sensors include position, proximity, range, touch, and force sensors. Position sensors like LVDT and RVDT convert linear or angular displacement into electrical signals.
3) Sensors have characteristics like range, sensitivity, accuracy, and response time that determine their effectiveness. Understanding sensor types and properties is important for robotics applications.
This document describes a prisoner surveillance system that uses various sensors to monitor inmates' health, location, and behavior. The system aims to improve oversight of prisons and ensure inmates' safety and rights are upheld. Sensors like heart rate, temperature, and alcohol monitors check inmates' health and detect drug/alcohol use. An accelerometer identifies sudden movements that could indicate attacks. Location is tracked using GPS. Data from the sensors is transmitted via WiFi to officers for real-time monitoring. The system seeks to strengthen accountability in prisons and prevent issues like abuse, unnecessary detention, or unhygienic conditions.
This document discusses Internet of Things (IoT) sensors and security. It begins with an introduction to how IoT connectivity has changed society and will continue to do so. IoT devices are predicted to grow significantly by 2020. The document then discusses what topics will be covered, including IoT sensors and security. It provides examples of common sensors like accelerometers, temperature sensors, light sensors, and MEMS sensors. It also discusses how sensor data is converted to digital data and transmitted. The document covers security objectives for IoT like authenticated senders and receivers. It identifies security issues for IoT applications and considerations around issues like multiple networks, long device lifecycles, and remote updates. Finally, it provides a checklist for
A sensor is a device or component that detects and measures physical properties or changes in the
environment and converts this information into a signal or data that can be interpreted or used.Transducer
A transducer is a device that converts one form of energy into another. It typically takes an input signal in
one form (such as electrical, mechanical, thermal, or optical) and transforms it into a different output
signal that can be used for measurement, control, or display purposes.
1. What are sensors, actuators and transducers. Give examples for each one.
2. Classify and explain sensors each one in detail
3. Explain sensors characteristics based on three fundamental properties.
4. List and explain all the considerations that must be incorporated during the sensing of critical
systems.
5. How is sensor resolution different from its accuracy?
6. List and explain different sensing types
7. Differentiate between scalar and vector sensors.
8. Differentiate between analog and digital sensors.
9. List and explain the factors that influence the choice of sensors.
10. What are actuators? List and explain the actuator types
11. Differentiate between hydraulic and pneumatic actuators with examples.
12. What are shape memory alloys (SMA)?
13. What are soft actuators?
14. What are the main features of shape memory polymers?
15. What are light activated polymers?
16. Explain actuator characteristics
1. Sensors allow machines and robots to monitor their surroundings in various ways and for many applications.
2. The document discusses different types of sensors like position, proximity, range sensors and their uses in industry, environment, and safety.
3. It also explains the characteristics and working principles of important position sensors like LVDT and RVDT, which can convert linear or angular displacement into electrical signals.
This document discusses IoT sensing and actuation. It defines transduction as the process of energy conversion from one form to another. Sensors convert various forms of energy into electrical signals, while actuators convert electrical signals into various forms of energy, typically mechanical energy. The document describes different types of sensors and their characteristics like resolution, accuracy, and precision. It also discusses sensor errors and deviations. Finally, it categorizes sensing into four types - scalar sensing, multimedia sensing, hybrid sensing, and virtual sensing - based on the nature of the environment being sensed.
Emerging Trends in Sensor Application in Industrial Scenario.pptxBikashDas76792
Ìý
The document discusses sensors and temperature sensors. It defines a sensor as a device that detects and responds to physical input from the environment and converts it into a readable signal. It then discusses different types of temperature sensors like thermocouples, thermistors, and RTDs that detect temperature changes by measuring properties like voltage, resistance, or current. Finally, it provides examples of infrared temperature sensors and optical pyrometers that can measure the temperature of moving or hot objects non-contactly and discusses common temperature sensor uses.
In an era where precision and efficiency are paramount, laser temperature sensors have emerged as a critical technology in various industries. From manufacturing to healthcare, these sensors provide accurate temperature measurements without direct contact with the object being measured. This blog delves into the workings of laser temperature sensors, their applications, advantages, and future trends.
This document provides an overview of smart objects and wireless sensor networks. It defines sensors and actuators as the fundamental building blocks of IoT networks that can measure and interact with the physical environment. Wireless sensor networks connect these smart objects wirelessly and face challenges related to limited device capabilities and network performance. Communication protocols like IEEE 802.15.4 and ZigBee are commonly used due to their support for low-power and low-bandwidth connected devices.
lecture 6 history containing modern events of freedom fightingChandraPrakash715640
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This document provides biographical information about Gopal Krishna Gokhale and discusses his role in the Indian independence movement.
1) Gokhale was born in 1866 and had a very successful early career, becoming a professor at 18 and secretary of various political organizations in his 20s and 30s. He was mentored by Mahadev Govind Ranade and fought for greater Indian political representation.
2) Gokhale co-founded the Servants of India Society in 1905 to train Indians for public service. He presided over the Indian National Congress session in 1905.
3) Gokhale was a moderate leader who advocated for self-government through constitutional means. He was
The electrodynamometer is a moving-coil instrument that uses a fixed coil to produce a magnetic field, rather than a permanent magnet. It can be used as an ammeter, voltmeter, or wattmeter for both AC and DC measurements up to 125Hz. It provides very high accuracy and is used in laboratories for calibrating other instruments. The moving coil is subjected to a torque based on the current in the fixed and moving coils and their mutual inductance. While expensive, it has advantages of being usable for both AC and DC and being free from hysteresis and eddy current losses due to its air-cored coils. However, it has low sensitivity and torque.
Transducers are devices that convert one form of energy or signal into another. Some common examples of transducers include microphones, which convert sound waves into electrical signals, and photovoltaic cells, which convert light into electrical energy. Transducers have a wide range of applications including sensors, medical devices, communication systems, and industrial automation. They are essential components of many electronic devices and systems.
Transducers are devices that convert one form of energy or signal into another. Some common examples of transducers include microphones, which convert sound waves into electrical signals, and photovoltaic cells, which convert light into electrical energy. Transducers have a wide range of applications including sensors, medical devices, communication systems, and industrial automation. They are essential components of many electronic devices and systems.
The document discusses the basic building blocks and components of an Internet of Things (IoT) system. It identifies the four main building blocks as sensors, processors, gateways, and applications. Sensors collect data from surroundings. Processors process and analyze the sensor data. Gateways route the processed data and provide network connectivity. Applications are used to utilize the collected data and provide services to users. The document also defines an IoT platform as a mediator between physical objects and actionable insights, enabling the collection, storage, analysis and management of data from connected devices.
This document discusses the history, definition, and applications of the Internet of Things (IoT). It begins with a brief history of IoT, noting that the term was coined in 1999 and became widely accepted in the 2000s. It then defines IoT as a system of interconnected devices that can transfer data over a network without human interaction. Finally, it provides examples of how IoT is used in various applications such as environmental monitoring, transportation, manufacturing, energy management, and more.
The document contains two physics questions related to kinematics. The first question asks to find the distance traveled and average velocity using a velocity-time plot for the first 40 seconds. The second question asks to calculate the distance traveled by a car going 54 km/h after the driver sees the need to brake, given a 0.20 second reaction time and 6.0 m/s^2 deceleration from the brakes.
The document contains 4 physics questions related to kinematics: calculating average acceleration of a particle changing direction, displacement of an airplane moving in different directions, time taken for a train to cross a bridge, and speed of an object given its acceleration-time curve. The questions provide scenarios and ask to determine various kinematic values like acceleration, displacement, time, and speed.
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Lecture -3 Cold water supply system.pptxrabiaatif2
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The presentation on Cold Water Supply explored the fundamental principles of water distribution in buildings. It covered sources of cold water, including municipal supply, wells, and rainwater harvesting. Key components such as storage tanks, pipes, valves, and pumps were discussed for efficient water delivery. Various distribution systems, including direct and indirect supply methods, were analyzed for residential and commercial applications. The presentation emphasized water quality, pressure regulation, and contamination prevention. Common issues like pipe corrosion, leaks, and pressure drops were addressed along with maintenance strategies. Diagrams and case studies illustrated system layouts and best practices for optimal performance.
How to Build a Maze Solving Robot Using ArduinoCircuitDigest
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Learn how to make an Arduino-powered robot that can navigate mazes on its own using IR sensors and "Hand on the wall" algorithm.
This step-by-step guide will show you how to build your own maze-solving robot using Arduino UNO, three IR sensors, and basic components that you can easily find in your local electronics shop.
Preface: The ReGenX Generator innovation operates with a US Patented Frequency Dependent Load Current Delay which delays the creation and storage of created Electromagnetic Field Energy around the exterior of the generator coil. The result is the created and Time Delayed Electromagnetic Field Energy performs any magnitude of Positive Electro-Mechanical Work at infinite efficiency on the generator's Rotating Magnetic Field, increasing its Kinetic Energy and increasing the Kinetic Energy of an EV or ICE Vehicle to any magnitude without requiring any Externally Supplied Input Energy. In Electricity Generation applications the ReGenX Generator innovation now allows all electricity to be generated at infinite efficiency requiring zero Input Energy, zero Input Energy Cost, while producing zero Greenhouse Gas Emissions, zero Air Pollution and zero Nuclear Waste during the Electricity Generation Phase. In Electric Motor operation the ReGen-X Quantum Motor now allows any magnitude of Work to be performed with zero Electric Input Energy.
Demonstration Protocol: The demonstration protocol involves three prototypes;
1. Protytpe #1, demonstrates the ReGenX Generator's Load Current Time Delay when compared to the instantaneous Load Current Sine Wave for a Conventional Generator Coil.
2. In the Conventional Faraday Generator operation the created Electromagnetic Field Energy performs Negative Work at infinite efficiency and it reduces the Kinetic Energy of the system.
3. The Magnitude of the Negative Work / System Kinetic Energy Reduction (in Joules) is equal to the Magnitude of the created Electromagnetic Field Energy (also in Joules).
4. When the Conventional Faraday Generator is placed On-Load, Negative Work is performed and the speed of the system decreases according to Lenz's Law of Induction.
5. In order to maintain the System Speed and the Electric Power magnitude to the Loads, additional Input Power must be supplied to the Prime Mover and additional Mechanical Input Power must be supplied to the Generator's Drive Shaft.
6. For example, if 100 Watts of Electric Power is delivered to the Load by the Faraday Generator, an additional >100 Watts of Mechanical Input Power must be supplied to the Generator's Drive Shaft by the Prime Mover.
7. If 1 MW of Electric Power is delivered to the Load by the Faraday Generator, an additional >1 MW Watts of Mechanical Input Power must be supplied to the Generator's Drive Shaft by the Prime Mover.
8. Generally speaking the ratio is 2 Watts of Mechanical Input Power to every 1 Watt of Electric Output Power generated.
9. The increase in Drive Shaft Mechanical Input Power is provided by the Prime Mover and the Input Energy Source which powers the Prime Mover.
10. In the Heins ReGenX Generator operation the created and Time Delayed Electromagnetic Field Energy performs Positive Work at infinite efficiency and it increases the Kinetic Energy of the system.
2. A sensor is a device that detects or measures a
physical quantity and converts it into an electrical
or digital signal that can be processed by a
computer or electronic system. Sensors are used
in a wide range of applications to gather
information about the physical world and to help
control and monitor various systems.
Sensor
3. There are many different types of sensors, each designed to
measure a specific physical quantity. Some examples of sensor
types include:
1.Temperature sensors: These sensors measure temperature,
typically using a thermistor, thermocouple or a resistance
temperature detector (RTD).
2.Pressure sensors: These sensors measure pressure, using
technologies such as piezoresistive or capacitive sensing.
3.Accelerometers: These sensors detect acceleration or changes
in motion, typically using a piezoelectric element or a
microelectromechanical system (MEMS).
4. 4. Proximity sensors: These sensors detect the presence or
absence of nearby objects, using technologies such as capacitive
or inductive sensing.
5. Light sensors: These sensors measure light intensity or spectral
content, typically using a photodiode, phototransistor, or
photomultiplier tube.
6. Magnetic sensors: These sensors detect magnetic fields, using
technologies such as magnetoresistive or Hall-effect sensing.
5. Sensors are used in a wide range of applications, from
everyday devices such as smartphones and wearable
devices to advanced systems such as autonomous
vehicles and industrial automation. They are also used in
scientific research, environmental monitoring, and
medical diagnostics, among many other fields.
6. IOT Sensor
An IoT (Internet of Things) sensor is a type of sensor that
is designed to be part of a network of interconnected
devices that can communicate with each other over the
internet. These sensors are usually small, low-power
devices that can detect and measure various physical
quantities, such as temperature, humidity, light, motion,
sound, and more.
7. IoT sensors are an important part of the growing ecosystem
of connected devices that make up the Internet of Things.
They allow for the collection of large amounts of data from a
wide range of sources, which can then be used for a variety
of purposes, such as optimizing energy usage, improving
industrial processes, and monitoring environmental
conditions.
8. IoT sensors typically use wireless communication protocols
such as Wi-Fi, Bluetooth, or Zigbee to connect to the internet
and communicate with other devices in the network. They are
often battery-powered and designed to be low-cost and easy
to install, making them suitable for a wide range of
applications.
9. Examples of IoT sensors include temperature and humidity
sensors used for smart thermostats, motion sensors used for
security systems, and air quality sensors used for
environmental monitoring. With the increasing use of IoT
sensors, we are seeing new and innovative applications
emerging in a wide range of industries, from agriculture to
healthcare to smart cities.
10. The data collected by IoT sensors is typically sent to a cloud-based
server or a data center, where it can be analyzed and processed
using machine learning algorithms and other data analytics tools.
The insights gained from this analysis can be used to make better
decisions and optimize processes, leading to increased efficiency,
reduced costs, and improved outcomes.
11. IoT sensors can also be used to create smart systems that can
operate autonomously, without the need for human intervention.
For example, a smart building can use sensors to monitor
occupancy, temperature, and lighting, and adjust these factors
automatically to optimize energy usage and create a comfortable
and productive environment for its occupants.
12. Another important feature of IoT sensors is their ability to be
programmed and updated remotely. This means that they can be
reconfigured or updated with new software or firmware, without the
need for physical access or maintenance. This allows for the
flexibility to adapt to changing needs and requirements, and to
improve the functionality and performance of the sensors over
time.
13. • Pressure sensors
• Temperature sensors
• Motion sensors
• Level sensors
• Image sensors
• Proximity sensors
• Water quality sensors
• Chemical sensors
IoT Sensors
14. • Gas sensors
• Smoke sensors
• Infrared (IR) sensors
• Acceleration sensors
• Gyroscopic sensors
• Humidity sensors
• Optical sensors
These are just a few examples of the many types of IoT sensors
that are available today. Each type of sensor has its unique
properties, and their selection depends on the specific application
requirements.
15. Actuators
Actuators are devices that convert electrical or other types of
signals into physical motion or force, allowing them to control
the movement or operation of a system or component. They are
the counterparts to sensors, which provide information about
the system or environment.
16. Actuators can be classified based on their functionality or the type
of motion they produce. Here are some common types of actuators
based on their functionality:
1.Electric actuators: These actuators use electric motors or
solenoids to generate motion or force. They are often used in
robotics, automation, and industrial applications.
2.Hydraulic actuators: These actuators use hydraulic pressure to
generate motion or force. They are often used in heavy
machinery, such as construction equipment and aircraft control
systems.
17. 3. Pneumatic actuators: These actuators use compressed air to
generate motion or force. They are often used in automation,
industrial machinery, and robotics.
4. Mechanical actuators: These actuators use mechanical means,
such as gears or cams, to generate motion or force. They are often
used in precision instruments, such as telescopes and
microscopes.
5. Thermal actuators: These actuators use changes in temperature to
generate motion or force. They are often used in bimetallic
switches, thermostats, and other temperature-sensitive devices.
18. Actuators can also be classified based on the type of motion they produce.
Here are some common types of actuators based on their motion:
1.Linear actuators: These actuators produce motion in a straight line.
2.Rotary actuators: These actuators produce rotational motion around an axis.
3.Solenoid actuators: These actuators use an electromagnetic field to move a
plunger or rod in a linear motion.
4.Piezoelectric actuators: These actuators use changes in voltage or pressure
to produce small, precise movements.
19. Actuators are used in a wide range of applications, from
controlling the motion of robotic arms to adjusting the position of a
valve in a pipeline. They play a critical role in the operation of
many systems and devices, and their selection depends on the
specific application requirements.
20. SENSOR ACTUATOR
It converts physical characteristics into
electrical signals.
It converts electrical signals into physical
characteristics.
It takes input from environment. It takes input from output conditioning unit of
system.
It gives output to input conditioning unit of
system. It gives output to environment.
Sensor generated electrical signals. Actuator generates heat or motion.
It is placed at input port of the system. It is placed at output port of the system.
It is used to measure the physical quantity. It is used to measure the continuous and
discrete process parameters.
It gives information to the system about
environment. It accepts command to perform a function.
Example: Photo-voltaic cell which converts
light energy into electrical energy.
Example: Stepper motor where electrical
energy drives the motor.