Uploaded August 2013 | Updated September 2026, 1 week ago
Tishitu explains
Time-lapse photography is a technique whereby the frequency at which film frames are captured (the frame rate) is much lower than that used to view the sequence. When played at normal speed, time appears to be moving faster and thus lapsing. For example, an image of a scene may be captured once every second, then played back at 30 frames per second. The result is an apparent 30-times speed increase. Time-lapse photography can be considered the opposite of high speed photography or slow motion.
Processes that would normally appear subtle to the human eye, e.g. the motion of the sun and stars in the sky, become very pronounced. Time-lapse is the extreme version of the cinematography technique of undercranking, and can be confused with stop motion animation.
Some classic subjects of timelapse photography include:
cloudscapes and celestial motion
plants growing and flowers opening
fruit rotting
evolution of a construction project
people in the city
The technique has been used to photograph crowds, traffic, and even television. The effect of photographing a subject that changes imperceptibly slowly, creates a smooth impression of motion. A subject that changes quickly is transformed into an onslaught of activity.
The first use of time-lapse photography in a feature film was in Georges Méliès' motion picture Carrefour De L'Opera (1897). Time-lapse photography of biological phenomena was pioneered by Jean Comandon[2] in collaboration with Pathé Frères from 1909, by F. Percy Smith in 1910 and Roman Vishniac from 1915 to 1918. Time-lapse photography was further pioneered in the 1920s via a series of feature films called Bergfilms (Mountain films) by Arnold Fanck, including The Holy Mountain (1926).
From 1929 to 1931, R. R. Rife astonished journalists with early demonstrations of high magnification time-lapse cine-micrography[3][4] but no filmmaker can be credited for popularizing time-lapse more than Dr. John Ott, whose life-work is documented in the DVD-film "Exploring the Spectrum".
Ott's initial "day-job" career was that of a banker, with time-lapse movie photography, mostly of plants, initially just a hobby. Starting in the 1930s, Ott bought and built more and more time-lapse equipment, eventually building a large greenhouse full of plants, cameras, and even self-built automated electric motion control systems for moving the cameras to follow the growth of plants as they developed. He time-lapsed his entire greenhouse of plants and cameras as they worked - a virtual symphony of time-lapse movement. His work was featured on a late 1950s episode of the request TV show, You Asked For It.
Ott discovered that the movement of plants could be manipulated by varying the amount of water the plants were given, and varying the color-temperature of the lights in the studio. Some colors caused the plants to flower, and other colors caused the plants to bear fruit. Ott discovered ways to change the sex of plants merely by varying the light source color-temperature.
By using these techniques, Ott time-lapse animated plants "dancing" up and down in synch to pre-recorded music tracks.
His cinematography of flowers blooming in such classic documentaries as Walt Disney's Secrets of Life (1956), pioneered the modern use of time-lapse on film and television. Ott wrote several books on the history of his time-lapse adventures, My Ivory Cellar (1958), "Health and Light" (1979), and the film documentary "Exploring the Spectrum" (DVD 2008).
PBS's NOVA series aired a full episode on time-lapse (and slow motion) photography and systems in 1981 titled Moving Still. Highlights of Oxford's work are slow-motion shots of a dog shaking water off himself, with close ups of drops knocking a bee off a flower, as well as time-lapse of the decay of a dead mouse.
The first major usage of time-lapse in a feature film was Koyaanisqatsi (1983). The non-narrative film, directed by Godfrey Reggio, contained much time-lapse of clouds, crowds, and cities filmed by cinematographer Ron Fricke. Years later, Ron Fricke produced a solo project called "Chronos" shot on IMAX cameras, which is still frequently played on Discovery HD. Fricke used the technique extensively in the documentary Baraka (1992) which he photographed on Todd-AO (70 mm) film. The most recent film made entirely in time-lapse photography is Nate North's film Silicon Valley Timelapse, which holds the distinction of being the first feature length film shot almost entirely in 3 frame high dynamic range.
Countless other films, commercials, TV shows and presentations have included time-lapse.
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Please watch: "Sci Hub Not working 2018 August"
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Tishitu explains
Time-lapse photography is a technique whereby the frequency at which film frames are captured (the frame rate) is much lower than that used to view the sequence. When played at normal speed, time appears to be moving faster and thus lapsing. For example, an image of a scene may be captured once every second, then played back at 30 frames per second. The result is an apparent 30-times speed increase. Time-lapse photography can be considered the opposite of high speed photography or slow motion.
Processes that would normally appear subtle to the human eye, e.g. the motion of the sun and stars in the sky, become very pronounced. Time-lapse is the extreme version of the cinematography technique of undercranking, and can be confused with stop motion animation.
Some classic subjects of timelapse photography include:
cloudscapes and celestial motion
plants growing and flowers opening
fruit rotting
evolution of a construction project
people in the city
The technique has been used to photograph crowds, traffic, and even television. The effect of photographing a subject that changes imperceptibly slowly, creates a smooth impression of motion. A subject that changes quickly is transformed into an onslaught of activity.
The first use of time-lapse photography in a feature film was in Georges Méliès' motion picture Carrefour De L'Opera (1897). Time-lapse photography of biological phenomena was pioneered by Jean Comandon[2] in collaboration with Pathé Frères from 1909, by F. Percy Smith in 1910 and Roman Vishniac from 1915 to 1918. Time-lapse photography was further pioneered in the 1920s via a series of feature films called Bergfilms (Mountain films) by Arnold Fanck, including The Holy Mountain (1926).
From 1929 to 1931, R. R. Rife astonished journalists with early demonstrations of high magnification time-lapse cine-micrography[3][4] but no filmmaker can be credited for popularizing time-lapse more than Dr. John Ott, whose life-work is documented in the DVD-film "Exploring the Spectrum".
Ott's initial "day-job" career was that of a banker, with time-lapse movie photography, mostly of plants, initially just a hobby. Starting in the 1930s, Ott bought and built more and more time-lapse equipment, eventually building a large greenhouse full of plants, cameras, and even self-built automated electric motion control systems for moving the cameras to follow the growth of plants as they developed. He time-lapsed his entire greenhouse of plants and cameras as they worked - a virtual symphony of time-lapse movement. His work was featured on a late 1950s episode of the request TV show, You Asked For It.
Ott discovered that the movement of plants could be manipulated by varying the amount of water the plants were given, and varying the color-temperature of the lights in the studio. Some colors caused the plants to flower, and other colors caused the plants to bear fruit. Ott discovered ways to change the sex of plants merely by varying the light source color-temperature.
By using these techniques, Ott time-lapse animated plants "dancing" up and down in synch to pre-recorded music tracks.
His cinematography of flowers blooming in such classic documentaries as Walt Disney's Secrets of Life (1956), pioneered the modern use of time-lapse on film and television. Ott wrote several books on the history of his time-lapse adventures, My Ivory Cellar (1958), "Health and Light" (1979), and the film documentary "Exploring the Spectrum" (DVD 2008).
PBS's NOVA series aired a full episode on time-lapse (and slow motion) photography and systems in 1981 titled Moving Still. Highlights of Oxford's work are slow-motion shots of a dog shaking water off himself, with close ups of drops knocking a bee off a flower, as well as time-lapse of the decay of a dead mouse.
The first major usage of time-lapse in a feature film was Koyaanisqatsi (1983). The non-narrative film, directed by Godfrey Reggio, contained much time-lapse of clouds, crowds, and cities filmed by cinematographer Ron Fricke. Years later, Ron Fricke produced a solo project called "Chronos" shot on IMAX cameras, which is still frequently played on Discovery HD. Fricke used the technique extensively in the documentary Baraka (1992) which he photographed on Todd-AO (70 mm) film. The most recent film made entirely in time-lapse photography is Nate North's film Silicon Valley Timelapse, which holds the distinction of being the first feature length film shot almost entirely in 3 frame high dynamic range.
Countless other films, commercials, TV shows and presentations have included time-lapse.
TISHITU
ISO: 9001-2008
RESEARCH AND CONSULTANCY CELL OF INDUSTRIAL APPLICATION
A Joint Accreditation System of Australia and New Zealand
Copyright © All Rights Reserved tishitu.org Reg No.08122629691/SSI
Accreditation No. M3111204IN.
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Please watch: "Sci Hub Not working 2018 August"
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![HHo Soap bubble Bomb 2019 November
Oxyhydrogen is a mixture of hydrogen (H2) and oxygen (O2) gases. This gaseous mixture is used for torches for the processing of refractory materials and was the first[1] gaseous mixture used for welding. Theoretically, a ratio of 2:1 hydrogen:oxygen is enough to achieve maximum efficency; in practice a ratio 4:1 or 5:1 is required to avoid an oxidizing flame.[2]
This mixture may also be called by an old term knallgas (German; bang-gas), although some authors used to define knallgas to be a generic term for the mixture of fuel with precise amount of oxygen required for complete combustion, thus 2:1 oxyhydrogen would be called hydrogen-knallgas
HHO generators, also known as hydrogen generators, convert water into fuel through the use of electrolysis, creating something called Browns gas or oxyhydrogen (HHO). The amount of sodium hydroxide (NaOH) needed is 1 rounded teaspoon per gallon of distilled water. Always pour the water first into your container, then add NaOH, which prevents the solution from boiling or splattering. Wear protective clothing and goggles when creating this solution.
Happy and Safe Diwali from team Tishitu
Jaipur , India, Rajasthan , Malviya Nagar,
302017
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Please watch: Lifi Communication by Arduino UNO Download Project
https://www.youtube.com/watch?v=c4gC8dbaiZg
-~-~~-~~~-~~-~- HHo Soap bubble Bomb 2019 November](https://i.ytimg.com/vi/UcdUhSwqMpg/mqdefault.jpg)



![TISHITU Part-1 LM 35 temperature control via RS 232 Protocol By Visual Basic 6.0 , Proteus & Keil
In 1963, IBM produced computers which were specialized for data acquisition. These include the IBM 7700 Data Acquisition System and its
successor, the IBM 1800 Data Acquisition and Control System. These expensive specialized systems were surpassed in 1974 by general
purpose S-100 computers and data acquisitions cards produced by Tecmar/Scientific Solutions Inc. In 1981 IBM introduced the IBM
Personal Computer and Scientific Solutions introduced the first PC data acquisition products.
Data acquisition is the process of sampling signals that measure real world physical conditions and converting the resulting samples
into digital numeric values that can be manipulated by a computer. Data acquisition systems (abbreviated with the acronym DAS or DAQ)
typically convert analog waveforms into digital values for processing. The components of data acquisition systems include:
Sensors that convert physical parameters to electrical signals.
Signal conditioning circuitry to convert sensor signals into a form that can be converted to digital values.
Analog-to-digital converters, which convert conditioned sensor signals to digital values.
Data acquisition applications are controlled by software programs developed using various general purpose programming languages such as
BASIC, C, Fortran, Java, Lisp, Pascal.
Specialized software tools used for building large-scale data acquisition systems include EPICS. Graphical programming environments
include ladder logic, Visual C++, Visual Basic, and LabVIEW.
ISIS Schematic Capture - a tool for entering designs.
PROSPICE Mixed mode SPICE simulation - industry standard SPICE3F5 simulator combined with a digital simulator.
ARES PCB Layout - PCB design system with automatic component placer, rip-up and retry auto-router and interactive design rule checking.
VSM - Virtual System Modelling lets cosimulate embedded software for popular micro-controllers alongside hardware design.
Data acquisition begins with the physical phenomenon or physical property to be measured. Examples of this include temperature, light
intensity, gas pressure, fluid flow, and force. Regardless of the type of physical property to be measured, the physical state that is
to be measured must first be transformed into a unified form that can be sampled by a data acquisition system. The task of performing
such transformations falls on devices called sensors.
A sensor, which is a type of transducer, is a device that converts a physical property into a corresponding electrical signal (e.g., a
acquisition system to measure differing properties depends on having sensors that are suited to detect the various properties to be
measured. Signal conditioning may be necessary if the signal from the transducer is not suitable for the DAQ hardware being used. The
signal may need to be filtered or amplified in most cases. Various other examples of signal conditioning might be bridge completion,
providing current or voltage excitation to the sensor, isolation, linearization. For transmission purposes, single ended analog
signals, which are more susceptible to noise can be converted to differential signals. Once digitized, the signal can be encoded to
reduce and correct transmission errors.
DAQ (Data acquisition )hardware is what usually interfaces between the signal and a PC[1]. It could be in the form of modules that can
be connected to the computers ports (parallel, serial, USB, etc.) or cards connected to slots (S-100 bus, AppleBus, ISA, MCA, PCI,
PCI-E, etc.) in the motherboard. Usually the space on the back of a PCI card is too small for all the connections needed, so an
external breakout box is required. The cable between this box and the PC can be expensive due to the many wires, and the required
shielding.
DAQ cards often contain multiple components (multiplexer, ADC, DAC, TTL-IO, high speed timers, RAM). These are accessible via a bus by
a microcontroller, which can run small programs. A controller is more flexible than a hard wired logic, yet cheaper than a CPU so that
it is permissible to block it with simple polling loops. For example: Waiting for a trigger, starting the ADC, looking up the time,
waiting for the ADC to finish, move value to RAM, switch multiplexer, get TTL input, let DAC proceed with voltage ramp.
-~-~~-~~~-~~-~-
Please watch: Lifi Communication by Arduino UNO Download Project
https://www.youtube.com/watch?v=c4gC8dbaiZg
-~-~~-~~~-~~-~- TISHITU Part-1 LM 35 temperature control via RS 232 Protocol By Visual Basic 6.0 , Proteus & Keil](https://i.ytimg.com/vi/WXtc8XSiSNo/mqdefault.jpg)

![Basics of electronics How to Glow LED in Proteus
LED GLOW
In this video we glowing a led, here we are using one led, one 330k resistor and dc power supply of 5v.Connect one end of resistor to button and button another to power supply and another terminal of resistor with the led ,remaining end of led is connected to ground.
Here, the supply voltage is 5V, LED Forward Voltage (VF) is 2.2 Volt and Forward Current (IF) is 10mA.
Now the Value of resistor (which we will connect in Series with LED) for this circuit would be:
Resistor Value = ((Vsupply-Vf))/If = (5 -2.2) / 10mA = 280Ω
Resistor Power rating formula for this circuit
Resistor Power Rating = IF2x Resistor Value= (10mA) 2 x 280 Ω = 0.028W = 28mW
But This is the minimum required resistor value to ensure that resistor will not overheat, so its recommended that to double the power rating of resistor that you have calculated, therefore, choose 0.028W x 2 = 0.056W = 56mW resistor for this circuit.
JJD - Adventure [NCS Release]
Different Heaven (NCS)
this music is provided by NCS, the link to the track is
https://www.youtube.com/watch?v=f2xGx...
Proteus File or Circuit Download
http://www.mediafire.com/file/yik890rk7qditm8/led.rar
http://www.mediafire.com/file/wweh61wueyc2vgy/ledglow.zip
TISHITU
ISO: 9001-2008
RESEARCH AND CONSULTANCY CELL OF INDUSTRIAL APPLICATION
A Joint Accreditation System of Australia and New Zealand
Copyright © All Rights Reserved www.tishitu.org Reg No.08122629691/SSI
Accreditation No. M3111204IN
-~-~~-~~~-~~-~-
Please watch: Lifi Communication by Arduino UNO Download Project
https://www.youtube.com/watch?v=c4gC8dbaiZg
-~-~~-~~~-~~-~- Basics of electronics How to Glow LED in Proteus](https://i.ytimg.com/vi/XQoZHrlXQJk/mqdefault.jpg)
![Tishitu #1 biogas short survey Rajasthan Go Seva Sangh Durgapura Jaipur India
Tishitu explains
Biogas typically refers to a gas produced by breakdown of organic matter in the absence of oxygen. Organic waste such as dead plant and animal material, animal feces, and kitchen waste can be converted into a gaseous fuel called biogas. Biogas originates from biogenic material and is a type of bio fuel.
Biogas is produced by the anaerobic digestion or fermentation of biodegradable materials such as biomass, manure, sewage, municipal waste, green waste, plant material, and crops.[1] Biogas comprises primarily methane (CH4) and carbon dioxide (CO2) and may have small amounts of hydrogen sulphide (H2S), moisture and siloxanes.
The gases methane, hydrogen, and carbon monoxide (CO) can be combusted or oxidized with oxygen. This energy release allows biogas to be used as a fuel. Biogas can be used as a fuel in any country for any heating purpose, such as cooking. It can also be used in anaerobic digesters where it is typically used in a gas engine to convert the energy in the gas into electricity and heat.[2] Biogas can be compressed, much like natural gas, and used to power motor vehicles. In the UK, for example, biogas is estimated to have the potential to replace around 17% of vehicle fuel.[3] Biogas is a renewable fuel so it qualifies for renewable energy subsidies in some parts of the world. Biogas can also be cleaned and upgraded to natural gas standards when it becomes bio methane.
The composition of biogas varies depending upon the origin of the anaerobic digestion process. Landfill gas typically has methane concentrations around 50%. Advanced waste treatment technologies can produce biogas with 55 75% methane,[11] which for reactors with free liquids can be increased to 80-90% methane using in-situ gas purification techniques[12] As-produced, biogas also contains water vapor. The fractional volume of water vapor is a function of biogas temperature; correction of measured gas volume for both water vapor content and thermal expansion is easily done via a simple mathematic algorithm[13] which yields the standardized volume of dry biogas.
In some cases, biogas contains siloxanes. These siloxanes are formed from the anaerobic decomposition of materials commonly found in soaps and detergents. During combustion of biogas containing siloxanes, silicon is released and can combine with free oxygen or various other elements in the combustion gas. Deposits are formed containing mostly silica (SiO2) or silicates (SixOy) and can also contain calcium, sulfur, zinc, phosphorus. Such white mineral deposits accumulate to a surface thickness of several millimeters and must be removed by chemical or mechanical means.
-~-~~-~~~-~~-~-
Please watch: Lifi Communication by Arduino UNO Download Project
https://www.youtube.com/watch?v=c4gC8dbaiZg
-~-~~-~~~-~~-~- Tishitu #1 biogas short survey Rajasthan Go Seva Sangh Durgapura Jaipur India](https://i.ytimg.com/vi/XS2DfygvYvE/mqdefault.jpg)
![DPDT switch for wired robot basic
Working of DC Motor
A DC motor is of a class of electrical machines that converts direct current electrical power into mechanical power. The most common types relay on the forces produced by magnetic fields. Nearly all types of DC motors have some internal mechanism, either electromechanical or electronic, to periodically change the direction of current flow in part of the motor. Most types produce rotary motion, a linear motor directly produces force and motion in a straight line.DC motors were the first type widely used, since they could be powered from existing direct-current lighting power distribution systems. A DC motors speed can be controlled over a wide range, using either a variable supply voltage or by changing the strength of current in its field windings. Small DC motors are used in tools, toys, and appliances.
Double Pole Double Throw (DPDT)
A Double Pole Double Throw (DPDT) switch is a switch that has 2 inputs and 4 outputs; each input has 2 corresponding outputs that it can connect to each of the terminals of a double pole double switch can either be in 1 of 2 positions. This makes the double pole double throw switch a very versatile switch. With 2 inputs, it can connect to 4 different outputs. It can reroute a circuit into 2 different modes of operation. A Double Pole Single Switch is actually two single pole double throw (SPDT) switches, with adding another pole to the single pole double throw (SPDT) creates a double pole double throw (DPDT) switch. Basically, two SPDT switches, which can control two separate circuits, but are always switched together by a single actuator.
In this video, we are controlling single motor with one dpdt switch then after controlling two motor with dpdt switch. A DC motor, a DPDT switch preferably one with a center OFF position, so you can control the motor like this: Forward, stop and backwards, a Power supply that suits the specifications of the motor (has the voltage and amperage as the manufacturer of the motor recommends).Place the components in the part list then place a battery for power supply of 12v then place DPDT switch and short pin 1 & 6 and similarly for pin 2 & 5.Connect battery to pin 3 and 4.When pin 3 is connected to pin 1 and pin 4 is connected to pin 2,motor moves in forward direction and when pin 3 is connected to pin 5 and when pin 4 is connected to pin 6 then motor moves in reverse direction.
Audio Source:-
RetroVision - Heroes [NCS Release]
this music is provided by NCS, the link to the track is
https://youtu.be/QfhF0V9VlJA
Download Circuit from link Below
http://www.mediafire.com/file/9i3zovdcm7zna5t/DC_MOTOR_WITH_DPDT%282%29.zip
TISHITU
ISO: 9001-2008
RESEARCH AND CONSULTANCY CELL OF INDUSTRIAL APPLICATION
A Joint Accreditation System of Australia and New Zealand
Copyright © All Rights Reserved www.tishitu.org Reg No.08122629691/SSI
Accreditation No. M3111204IN
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Please watch: Lifi Communication by Arduino UNO Download Project
https://www.youtube.com/watch?v=c4gC8dbaiZg
-~-~~-~~~-~~-~- DPDT switch for wired robot basic](https://i.ytimg.com/vi/XtD_GfAV42U/mqdefault.jpg)

![Controller Area Network (CAN) Part-2
What is CAN?
Controller Area Network (CAN) is a serial network that was originally designed for the automotive industry, but has also become a popular bus in industrial automation as well as other applications. The CAN bus is primarily used in embedded systems, and as its name implies, is the network established among microcontrollers. It is a two-wire, half duplex, high-speed network system and is well suited for high speed applications using short messages. Its robustness, reliability and the large following from the semiconductor industry are some of the benefits with CAN.
FullCAN
FullCAN is used in more expensive, high performance CAN controllers and microcontrollers. The FullCAN controller has a set of buffers called mailboxes. On initialization, each mailbox is assigned an identifier and is set to transmit or receive.
When the CAN controller receives a message it checks the mailboxes in order to see is there is a receive mailbox with the same identifier as the message. If such a mailbox is found, the message is stored in it and the host controller is notified. Otherwise the message is discarded.
When transmitting a message the message length and data is written to the transmit mailbox with the correct identifier.
If a remote message is received the controller checks the remote identifier against the transmit mailboxes. If a match is found, the controller automatically sends a message with the identifier and data contained in that mailbox. This means that the microcontroller gets a lower load, and that the software does not have to handle remote messages. However, if the mailbox has not been updated in a long time, the information sent to the network will be old. This have to be considered when writing the software.
With a FullCAN controller it is possible to filter out only the exact message types that are interesting. This type of controller will therefore give a lower load on the host microcontroller. However, the number of mailboxes are limited. The largest number of mailboxes present in a CAN controller today is ???.
With some controllers it is possible to reconfigure the mailboxes dynamically. However, that does not completely solve the problem. Therefore some controllers are mixed CAN controllers, that is they have mailboxes, but also BasicCAN buffers.
FullCAN controllers have support for automatically answering remote frames. This will decrease the load on the host microcontroller or processor, but may also mean that old information is sent. It is very important to take this into consideration when writing your application.
CAN can theoretically link up to 2032 devices (assuming one node with one identifier) on a single network. However, due to the practical limitation of the hardware (transceivers), it can only link up to110 nodes (with 82C250, Philips) on a single network. It offers high-speed communication rate up to 1 Mbits/sec thus allows real-time control. In addition, the error confinement and the error detection feature make it more reliable in noise critical environment.
LInk :- http://hem.bredband.net/stafni/developer/CAN.htm
CAN bus (for controller area network) is a vehicle bus standard designed to allow microcontrollers and devices to communicate with each other within a vehicle without a host computer.
CAN bus is a message-based protocol, designed specifically for automotive applications but now also used in other areas such as industrial automation and medical equipment.
Development of CAN bus started originally in 1983 at Robert Bosch GmbH.[1] The protocol was officially released in 1986 at the Society of Automotive Engineers (SAE) congress in Detroit, Michigan. The first CAN controller chips, produced by Intel and Philips, came on the market in 1987. Bosch published the CAN 2.0 specification in 1991.
CAN bus is one of five protocols used in the OBD-II vehicle diagnostics standard. The OBD-II standard has been mandatory for all cars and light trucks sold in the United States since 1996, and the EOBD standard has been mandatory for all petrol vehicles sold in the European Union since 2001 and all diesel vehicles since 2004.
http://en.wikipedia.org/wiki/CAN_bus
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Please watch: Lifi Communication by Arduino UNO Download Project
https://www.youtube.com/watch?v=c4gC8dbaiZg
-~-~~-~~~-~~-~- Controller Area Network (CAN) Part-2](https://i.ytimg.com/vi/YBev_MLe65M/mqdefault.jpg)