Amazon Video

AI Toaster That Makes Perfect Toast Using Smell | Digi-Key Electronics

The majority of kitchen counter toasters are basic home appliances that run a set of home heating coils on a timer. If you utilize different types of bread, thicknesses, or starting temperature levels without changing the timer, you could finish up with undercooked or worse, burned toast. I take on the evasive issue of making the best toast by using some ingrained equipment discovering hoax.

I customize (nay, hack) an inexpensive toaster oven to control the toasting process. By utilizing a collection of gas sensors, I can collect bountiful information on different smells launched during toasting. If we can scent when salute is burned, why can not a maker do the same?

I start by developing a sensor collection cage that installs a number of sensing units over a toaster. From there, I shed a hill of salute to accumulate enough gas data to train an equipment discovering design that can anticipate the moment remaining before the salute ends up being melted. This version is made use of to regulate the toasting process and quits the process time prior to the scorched stage is reached.

If you ‘d like to build your very own, a complete tutorial can be found below: https://www.digikey.com/en/maker/projects/how-to-build-an-ai-powered-toaster/2268be5548e74ceca6830bf35f0f0f9e

This job was inspired by Benjamin Cabe’s AI Nose job, which you can review here: https://blog.benjamin-cabe.com/

Previous project (AI nose): https://www.youtube.com/watch?v=KyMC0LsLZms

Introductory to TinyML Part 1: https://www.youtube.com/watch?v=BzzqYNYOcWc
Intro to TinyML Part 2: https://www.youtube.com/watch?v=dU01M61RW8s

Amazon Video

AI Toaster That Makes Perfect Toast Using Smell | Digi-Key Electronics

Most countertop toasters are simple appliances that operate a set of heating coils on a timer. If you use different types of bread, thicknesses, or starting temperatures without changing the timer, you might end up with undercooked or worse, burnt toast. I tackle the elusive problem of making the perfect toast by applying some embedded machine learning trickery.

I modify (nay, hack) an inexpensive toaster to control the toasting process. By using a collection of gas sensors, I can collect abundant data on different odors released during toasting. If we can smell when toast is burned, why can’t a machine do the same?

I start by building a sensor collection cage that mounts a number of sensors over a toaster. From there, I burn a mountain of toast to collect enough gas data to train a machine learning model that can predict the time remaining before the toast becomes burned. This model is used to control the toasting process and stops the process some time before the burned stage is reached.

If you’d like to build your own, a full tutorial can be found here: https://www.digikey.com/en/maker/projects/how-to-build-an-ai-powered-toaster/2268be5548e74ceca6830bf35f0f0f9e

This project was inspired by Benjamin Cabe’s AI Nose project, which you can read about here: https://blog.benjamin-cabe.com/

Previous project (AI nose): https://www.youtube.com/watch?v=KyMC0LsLZms

Intro to TinyML Part 1: https://www.youtube.com/watch?v=BzzqYNYOcWc
Intro to TinyML Part 2: https://www.youtube.com/watch?v=dU01M61RW8s

Amazon Video

Eaton Electronics – Who we are – version for Engineers

0:00 – Intro of Eaton and Electronics Division
0:42 – Technologies & solutions help engineer solve design challenges
0:59 – Innovative construction meets growing applications
1:12 – Tools and expertise help select products and customize solutions

Every day, all around the world, people depend on technology, transportation, energy and infrastructure to live, work and thrive. And the companies who provide these products and services depend on Eaton to help solve some of the toughest challenges on the planet. Because we never lose sight of what matters. And it’s our job to make sure it works. Eaton’s Electronics Division provides the passives products that empower the emerging digitalization in today’s connected world. We offer some of the most recognizable brands in the industry and have increased the pace at which we develop innovative new technologies and solutions that touch people at home, at work, and at play, improving quality of life and enabling a brighter future. But we don’t just innovate for the sake of innovating. We strive to develop technologies and deliver products that help engineers solve the latest design challenges, and to do this we’re introducing more new products than we ever have. We develop new materials and improve processes that enable meaningful performance benefits. We offer innovative constructions to solve needs of the most demanding applications, as well as multiple product technologies for solution based designs that solve real world problems and simplify design in rapidly growing applications. We leverage world-class simulation capabilities to verify functionality in complex application conditions. We provide tools that let engineers find the right product in real-time. And we offer fast prototyping capabilities when engineers want to leverage our expertise in a custom solution. Come and learn about our new products and everything we can do to support you.

Amazon Video

Electronic Pressure Switches – How They Work

Electronic pressure switches over clarified. Discover how electronic stress changes job, stress gauge, mechanical pressure switches, electronic devices, wheatstone brdge
Find out extra regarding Danfoss digital stress switches https://bit.ly/34vc4Es

They supply a wide range of benefits in comparison to a mechanical stress switch.
Greater precision, flexibility from get in touch with wear, outstanding long-lasting stability, less complex procedure as well as a high number of changing cycles are some of the product benefits.

FREE style software program https://www.altium.com/asp/the-engineering-mindset/

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Stepper motor: https://youtu.be/09Mpkjcr0bo.
A/c electric motors https://youtu.be/59HBoIXzX_c.
DC motors: https://youtu.be/GQatiB-JHdI.
Voltage regulatory authority https://youtu.be/d-j0onzzuNQ. Series circuits https://youtu.be/VV6tZ3Aqfuc. Identical circuits https://youtu.be/5uyJezQNSHw.
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. Hyperlinks- MUST WATCH!!.
*******************************. ELECTRIC ENGINEERING.
Exactly how electrical power functions: https://youtu.be/mc979OhitAg. Three Phase Electricity: https://youtu.be/4oRT7PoXSS0.
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How induction electric motor functions: https://youtu.be/N7TZ4gm3aUg.
REFRIGERATOR ENGINEERING. Water cooled refrigerator Part1: https://youtu.be/0rzQhSXVq60. Water cooled chiller Part2: https://youtu.be/3ZpE3vCjNqM.
Water cooled down chiller progressed: https://youtu.be/QlKSGDgqGF0. Air cooled down refrigerator: https://youtu.be/0R84hLprO5s.
Absorption Chiller: https://youtu.be/Ic5a9E2ykjo.
Chiller/Cooling tower/AHU: https://youtu.be/1cvFlBLo4u0.
Chiller flow rate: https://youtu.be/tA1_V6-dThM.
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Refrigerator rise: https://youtu.be/DQK_-vxObiw. Chiller condenser: https://youtu.be/p5uuPsyqnwU. Chiller evaporator: https://youtu.be/W3w7FpX9j9k. Chiller compressor centrifugal: https://youtu.be/PT0UIqAGacg.
Refrigerator air conditioning ability: https://youtu.be/f-N4isgQRGQ. A/C ENGINEERING. Heating and cooling Basics: https://youtu.be/klggop60vlM. Boilers/AHU/FCU: https://youtu.be/lDeuIQ4VeWk.
How Heat Pump functions: https://youtu.be/G53tTKoakcY.

Heatpump progressed: https://youtu.be/G53tTKoakcY. Fan Coil Units: https://youtu.be/MqM-U8bftCI. VAV Systems: https://youtu.be/HBmOyeWtpHg. CAV Systems: https://youtu.be/XgQ3v6lvoZQ. VRF Units: https://youtu.be/hzFOCuAho_4. Cooling lots computations: https://youtu.be/0gv2tJf7nwo.
Pump computations: https://youtu.be/99vikjRrlgo. Fan as well as motor computations: https://youtu.be/rl-HQRzL-kg.
Cooling towers: https://youtu.be/UzHJWNL2OtM.
Just how cooling agents work: https://youtu.be/lMqoKLli0Y4. Design refrigeration system: https://youtu.be/TPabv9iDENc. How A/C units job
: https://youtu.be/Uv3GfEQhtPE.
Just how refrigerants work: https://youtu.be/lMqoKLli0Y4. HYDRONICS.
Primary & Secondary system: https://youtu.be/KU_AypZ-BnU.
Pumps: https://youtu.be/TxqPAPg4nb4. Pump calculations: https://youtu.be/99vikjRrlgo. DOCUMENTARY.

WW2 Bunker HVAC engineering: https://youtu.be/xEzz-JkPeLQ diaphragm existing pressure sensor pressure gauge Wheatstone bridge instrumentation diaphragm anatomyurrent hvacr. #engineer #engineering #controls.

Amazon Video

Electronic Pressure Switches – How They Work

Electronic pressure switches explained. Learn how electronic pressure switches work, strain gauge, mechanical pressure switches, electronics, wheatstone brdge
🎁 Learn more about Danfoss electronic pressure switches ➡️ https://bit.ly/34vc4Es

They offer a multitude of advantages in comparison to a mechanical pressure switch.
Greater accuracy, freedom from contact wear out, excellent long-term stability, simpler operation and a high number of switching cycles are some of the product advantages.

👉 👉👉 FREE design software ➡️ https://www.altium.com/asp/the-engineering-mindset/

Good multimeter:➡️ http://electricl.info/good-multimeter​
Pro multimeter:➡️ http://electricl.info/best-multimeter​
Power monitor plug:➡️ http://engineerz.club/energy-plug​

VFD:➡️ https://youtu.be/yEPe7RDtkgo
Pumps explained:➡️ https://youtu.be/XpcCUtYzwy0
Temperature sensor:➡️ https://youtu.be/w3Hfj2kMrGo
Relays:➡️ https://youtu.be/n594CkrP6xE
Stepper motor:➡️ https://youtu.be/09Mpkjcr0bo
AC motors ➡️ https://youtu.be/59HBoIXzX_c
DC motors:➡️ https://youtu.be/GQatiB-JHdI
Transistors:➡️ https://youtu.be/J4oO7PT_nzQ
Diodes:➡️ https://youtu.be/Fwj_d3uO5g8
Capacitor:➡️ https://youtu.be/X4EUwTwZ110
Inductors: ➡️ https://youtu.be/KSylo01n5FY
Voltage regulator➡️ https://youtu.be/d-j0onzzuNQ
Series circuits ➡️ https://youtu.be/VV6tZ3Aqfuc
Parallel circuits ➡️ https://youtu.be/5uyJezQNSHw

👋 SOCIALISE WITH US 👋
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👉FACEBOOK: https://facebook.com/theengineeringmindset/
👉TWITTER: https://twitter.com/TheEngMindset
👉INSTAGRAM: https://instagram.com/engineeringmindset/
👉WEBSITE: Http://TheEngineeringMindset.com

👀 Links – MUST WATCH!! 👀
*******************************
⚡ELECTRICAL ENGINEERING⚡
👉How electricity works: https://youtu.be/mc979OhitAg
👉Three Phase Electricity: https://youtu.be/4oRT7PoXSS0
👉How Inverters work: https://youtu.be/ln9VZIL8rVs
👉How TRANSFORMER works: https://youtu.be/UchitHGF4n8
👉How 3 Phase electricity works: https://youtu.be/4oRT7PoXSS0
👉How Induction motor works: https://youtu.be/N7TZ4gm3aUg
👉What is a KWH: https://youtu.be/SMPhh8gT_1E
👉How induction motor works: https://youtu.be/N7TZ4gm3aUg

❄️ CHILLER ENGINEERING ❄️
👉Chiller Efficiency improvements: https://youtu.be/8x3MiO5XjhY
👉Chilled water schematics: https://youtu.be/ak51DHAiuWo
👉Chiller crash course: https://youtu.be/K0xAKzdROEg
👉Chiller types: https://youtu.be/gYcNDT1d30k
👉Chillers/AHU/RTU: https://youtu.be/UmWWZdJR1hQ
👉Water cooled chiller Part1: https://youtu.be/0rzQhSXVq60
👉Water cooled chiller Part2: https://youtu.be/3ZpE3vCjNqM
👉Water cooled chiller advanced: https://youtu.be/QlKSGDgqGF0
👉Air cooled chiller: https://youtu.be/0R84hLprO5s
👉Absorption Chiller : https://youtu.be/Ic5a9E2ykjo
👉Chiller/Cooling tower/AHU: https://youtu.be/1cvFlBLo4u0
👉Chiller flow rate: https://youtu.be/tA1_V6-dThM
👉Chiller fault troubleshooting: https://youtu.be/Zu0LVVNNVSw
👉Chiller COP calculation: https://youtu.be/h5ILlZ8nyHE
👉Chiller cooling capacity calcs: https://youtu.be/BZxXIdxVKeY
👉Chiller compressors: https://youtu.be/7Bah__spkTY
👉Chiller expansion valve: https://youtu.be/dXiV5YzTZQ4
👉Chiller surge: https://youtu.be/DQK_-vxObiw
👉Chiller condenser: https://youtu.be/p5uuPsyqnwU
👉Chiller evaporator: https://youtu.be/W3w7FpX9j9k
👉Chiller compressor centrifugal: https://youtu.be/PT0UIqAGacg
👉Chiller cooling capacity: https://youtu.be/f-N4isgQRGQ

🌡️ HVAC ENGINEERING 🌡️
👉HVAC Basics: https://youtu.be/klggop60vlM
👉Boilers/AHU/FCU: https://youtu.be/lDeuIQ4VeWk
👉How Heat Pump works: https://youtu.be/G53tTKoakcY
👉Heat pumps advanced: https://youtu.be/G53tTKoakcY
👉Fan Coil Units: https://youtu.be/MqM-U8bftCI
👉VAV Systems: https://youtu.be/HBmOyeWtpHg
👉CAV Systems: https://youtu.be/XgQ3v6lvoZQ
👉VRF Units: https://youtu.be/hzFOCuAho_4
👉Cooling load calculations: https://youtu.be/0gv2tJf7nwo
👉Pulley belt calculations: https://youtu.be/yxCBhD9nguw
👉Pump calculations: https://youtu.be/99vikjRrlgo
👉Fan and motor calculations: https://youtu.be/rl-HQRzL-kg
👉HVAC Cooling coils: https://youtu.be/oSs-4Ptcfhk
👉Cooling towers: https://youtu.be/UzHJWNL2OtM

⚗️ REFRIGERATION SYSTEMS 🌡️
👉How refrigerants work: https://youtu.be/lMqoKLli0Y4
👉Thermal expansion valves: https://youtu.be/oSLOHCOw3yg
👉Refrigeration design software: https://youtu.be/QqP5aY6liAg
👉Design refrigeration system: https://youtu.be/TPabv9iDENc
👉Reversing valve: https://youtu.be/r8n1_6qmsKQ
👉How A/C units work: https://youtu.be/Uv3GfEQhtPE

⚗️ REFRIGERANTS ⚗️
👉Refrierant retrofit guide: https://youtu.be/1OqgLcU2buQ
👉Refrigerant types, future: https://youtu.be/J77a0keM2Yk
👉How refrigerants work: https://youtu.be/lMqoKLli0Y4

🌊 HYDRONICS 🌊
👉Primary & Secondary system: https://youtu.be/KU_AypZ-BnU
👉Pumps: https://youtu.be/TxqPAPg4nb4
👉Pump calculations: https://youtu.be/99vikjRrlgo

🎬 DOCUMENTARY 🎬
👉WW2 Bunker HVAC engineering: https://youtu.be/xEzz-JkPeLQ diaphragm current pressure sensor strain gauge Wheatstone bridge instrumentation diaphragm anatomyurrent hvacr
#engineer #engineering #controls

Amazon Video

Make an Automatic Temperature Control Sensor, Simple Electronic Project

Make an Automatic Temperature Control Sensor, Simple Electronic Project
Today i will certainly show you exactly how to make a car temperature control temperature sensor circuit flexible temperature level control circuit make at residence. Basic temperature level regulated follower, digital temperature level control circuit make in your home. Simple and also easy electronic devices diy tasks make in your home.
I hopeful this video will certainly be helpful for you and your buddies please
like, share as well as subscribe for even more most current videos.
I wish you additionally similar to this, my other new awesome electronic projects videos.”.

Subscribe https://goo.gl/bNMSXt.

Amazon Video

Electronic Throttle Control | Toyota

Electronic Throttle Control Systems (ETCS) have enhanced vehicle safety by making possible functions such as vehicle skid control and traction control. Learn how they work and the multiple fail-safe systems built into your Toyota’s ETCS. Learn more at http:///www.toyota.com/safety. Toyota USA

SUBSCRIBE: http://bit.ly/ToyotaSubscribe

About Toyota:
We’re in the business of making great cars and trucks. But we also work every day to apply and share our know-how in ways that benefit people, the community and our planet in order to build a better tomorrow. We’ve been a part of life in America for over 50 years. And while we’re passionate about making great cars and trucks, our story is about much more than our vehicles.

Connect with Toyota USA online:
Visit the Toyota WEBSITE: http://bit.ly/ToyotaSite
Like Toyota on FACEBOOK: http://bit.ly/ToyotaUSAFB
Follow Toyota on TWITTER: http://bit.ly/ToyotaTwitter
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+1 Toyota on GOOGLE+: http://bit.ly/ToyotaUSAGplus

Electronic Throttle Control | Toyota
http://www.youtube.com/user/ToyotaUSA

Amazon Video

Harsh Environments in the Electronics Industry | SICK AG

Click here for more information:
https://www.sick.com/harsh-environments-in-the-electronics-industry

Electronics are a part of our daily life. Whether in semiconductor chips in mobile devices, in solar modules for power generation or in batteries for electrical buses and cars – electronics are playing an increasingly important roll.
The automated production of this technology is very complex. Vacuum and high temperature environments are required and aggressive chemicals used.
These requirements not only influence the production locations and the corresponding machines. New challenges are also arising for sensor solutions. How can these be overcome?

Subscribe to our YouTube channel and watch all videos from SICK:
http://www.youtube.com/subscription_center?add_user=sicksensors

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For information and general inquiries please contact:
https://www.sick.com/contact

Amazon Video

Electronics-Free Soft Legged Robot

Pneumatic circuits without electronic components enable automatic control of the walking gait of a soft legged robot

Pneumatically actuated soft robots have recently shown promise for their ability to adapt to their environment. Previously, these robots have been controlled with electromechanical components such as valves and pumps that are typically bulky and expensive. In this work, we developed a soft legged walking robot that is controlled and powered by pressurized air. We designed soft valves and pneumatic circuits to control the walking direction of the robot. We used a soft ring oscillator circuit to generate the rhythmic oscillatory movement similar to central pattern generator circuits observed in nature. The robot’s walking pattern was inspired by biological quadrupeds like the African side neck turtle. We demonstrated a control circuit that allowed the robot to select between gaits for omnidirectional locomotion. We also equipped the robot with simple sensors to change its gait in response to interactions with the environment. This work represents a step towards fully autonomous, electronics-free walking robots. Applications include low-cost robotics for entertainment, such as toys, and robots that can operate in environments where electronics cannot function, such as MRI machines or mine shafts.

Publication: https://robotics.sciencemag.org/content/6/51/eaay2627
Commentary: https://robotics.sciencemag.org/content/6/51/eabg6994

Lab Webpage: https://sites.google.com/eng.ucsd.edu/bioinspired/
Personal Website: https://www.dylandrotman.com/

Amazon Video

Electronics-Free Soft Legged Robot

Pneumatically-driven circuits without electronic components make it possible for automatic control of the strolling stride of a soft legged robotic

Pneumatically actuated soft robots have actually recently revealed assurance for their capacity to adjust to their atmosphere. Previously, these robots have actually been regulated with electromechanical components such as valves and also pumps that are pricey as well as usually large. In this work, we created a soft legged strolling robotic that is controlled and powered by pressurized air. We created pneumatically-driven circuits as well as soft shutoffs to control the walking direction of the robot. We used a soft ring oscillator circuit to generate the rhythmic oscillatory activity similar to central pattern generator circuits observed in nature. The robotic’s walking pattern was motivated by organic quadrupeds like the African side neck turtle. We demonstrated a control circuit that permitted the robotic to select between gaits for omnidirectional locomotion. We also furnished the robot with basic sensing units to transform its stride in response to communications with the setting. This work represents a step in the direction of totally self-governing, electronics-free walking robots. Applications consist of inexpensive robotics for home entertainment, such as toys, as well as robotics that can run in environments where electronics can not function, such as MRI makers or mine shafts.

Publication: https://robotics.sciencemag.org/content/6/51/eaay2627
Commentary: https://robotics.sciencemag.org/content/6/51/eabg6994

Laboratory Webpage: https://sites.google.com/eng.ucsd.edu/bioinspired/
Individual Website: https://www.dylandrotman.com/