View allAll Photos Tagged Sensor
The O2 sensor connector is behind the starter, and for most bikes the starter must be removed to access it.
Before doing anything, disconnect the negative cable from the battery to prevent a short.
Top yellow arrow points to the power connection to the starter. This is live even if the ignition is turned off. After disconnecting the (-) cable at the battery, then disconnect this wire.
Middle yellow arrow points to a friction fit connector. Just pull it off.
Bottom blue arrow points to the O2 sensor connector.
This is the CCD sensor out of a Casio Exilim digital camera. The LCD was shot, and it was not worth it to get a new one. Plus it was more fun to take it apart :)
That's a pair of wire cutters it's resting on.
A simple heartbeat sensor for arduino. Communicates each beat to the computer via serial over USB. A little script in Processing sends OSC messages to SuperCollider which makes a sound. Processing also displays a graph of beats per minute readings from the Arduino.
This version sends serial messages over the USB connection, a later version sends OSC messages over ethernet (even cooler!) (http://www.flickr.com/photos/chuck_notorious/4041494889/).
Next step: use the Arduino Ethernet shield to send OSC messages directly.
Next Next Step: Use this as part of a cool multimedia performance!
(It's on this week at the Street Theatre in Canberra! www.lastmantodie.net)
Information: cmpercussion.blogspot.com/2009/07/heartbeat-sensor.html
A simple, quick, and very cheap circuit to turn on an LED when it gets dark. Read more about this project here.
Tailwater Installation/RIO-204/TW-13-1
Find out more about this senor suppor at: www.simplifiedbuilding.com/blog/sensor-support-structure/
This is a new textile sensor to measure water / wetness. It is 100% compatible with the Arduino platform. It detects water by changing its resistance from open circuit to a few megaohms.
After one connector is finished, the other end of the wires are done. They are crimped and soldered onto the pins for the other connector.
A small needle nose pliers, used for hobbies, is useful in pulling the pins into the connector. They should snap into place.
The yellow cap is pushed into place.
Busted webcam sensor with lens removed.
RX100 with:
52mm CarrySpeed magnetic adapter:
Huge Filter/Macro lens set (52mm):
Variable ND filter (52mm)
Here is a picture of the area, with the starter removed. The O2 sensor connector is easily accessed.
You should do this before building the modification unit, to see the orientation of the male-female connectors, and of the 4 sensor wires.
Sensor ultra-sônico produzido pela SeeedStudio.
O campo de detecção vai de 3cm a 4m. Este sensor trabalha com 5v.
API: garden.seeedstudio.com/index.php?title=Ultra_Sonic_range_...
Agfa Optima Sensor compact 35mm camera. Film loads into chamber on left indicated by four arrows, which is light tight to protect the film if the camera back is accidentally opened.
Specifications:-
Type: 35mm compact camera
Size: 104 mm x 68 mm x 54 mm (W x H x D)
Image Format: 24 x 36 mm (W x H)
Lens: Agfa Solitar, 40 mm f/2.8
Diaphragm: Automatic f/2.8 to f/22
Focusing: Manual scale pictograms on top of the focus ring/ meter/feet scale on bottom, focusing 3ft/1.09m - infinity
Shutter Speeds: 1/500 second - 15 seconds
Viewfinder: Large direct finder with parallax marks for near focus
Film Loading: Manual
Film Transport: Manual single stroke lever, also used to rewind film when the 'R' button is depressed and turned
Film Speeds: 25 ASA/15 DIN to 500 ASA/28 DIN, selected on a ring around the lens
Flash Contact: Hot shoe, aperture selected manually with flash
Cable Release Socket: On left hand side of the camera body
Tripod Socket: 1/4 in. on right hand side which doubles as camera strap attachment
Battery: 3 V625U batteries, located by opening the camera back
The Aerosol Polarimetry Sensor (APS) is designed to study aerosols by observing how light behaves when scattered by the aerosol particles.
Credit: Raytheon
NASA Goddard Space Flight Center enables NASA’s mission through four scientific endeavors: Earth Science, Heliophysics, Solar System Exploration, and Astrophysics. Goddard plays a leading role in NASA’s accomplishments by contributing compelling scientific knowledge to advance the Agency’s mission.
Follow us on Twitter
Join us on Facebook
Preparing the avionics. For the LOC IV, we used the simple tilt sensor seen at the bottom, to electronically ignite the black powder ejection charge after apogee. Since I am flying an experimental motor with an uncharacterized thrust curve, I can’t estimate in advance how long of a delay to use from launch to apogee. So the magnetic tilt sensor can sense when the nose cone starts to point downward, and can pop the chute. (it’s important that the rocket not fall over between arming it and launch =) This avionic package was pulverized into rubble in the flight right after mine as that rocket did a ballistic nose dive into the playa. We recovered all the little bits, even the blue capacitor.
Above it is the more sophisticated MC1 motor controller, prepping for insertion into my Firestorm54. It logs altitude with a barometer and triggers the smaller drogue chute ejection charge at apogee with an accelerometer (since the barometric readings become irregular at the Mach transition). It uses the barometric sensor to deploy the main chute when the rocket slowly falls back to 800ft. altitude.
It interfaces to a PC to give a flight log. So I know that I broke 10K ft. with my Firestorm54 on an Aerotech K185 long-burn motor, and my friend Erik used it to successfully break Mach1 with his Vertical Assault on a K695 redline motor.
(Next)
The latest version of PNNL’s Sensor Fish floats in water and flashes its LED lights after a test. LED lights help researchers see and retrieve the device.
Terms of Use: Our images are freely and publicly available for use with the credit line, "Courtesy of Pacific Northwest National Laboratory." Please use provided caption information for use in appropriate context.
Sensor in original position was reading approx 5 degrees higher than ambient. Re-positioning resulted in correct temperature readings.
Code available here - github.com/ibuildrockets/NixieTemperatureDisplay
(Project 365 Day 36, Part 2)
This is a full-sized crop of one side of the Wii "sensor bar" from the last picture, which you should go look at first. What's neat about this is that those lights are completely invisible to the naked eye, because they're infrared, but the CCDs on my digital camera pick it up somehow. Just another reminder that cameras and eyes actually work differently. :)
It's pretty annoying when you spend a load of cash on a new toy and the manufacturer hasn't ironed out all the kinks! It seems the mirror of my Nikon D600 is spraying lubricant on the sensor, as the spots visible here are not dust and have increased in number over time.
This shot is completely untouched other than being converted from RAW to JPEG. It is a worst case scenario shot, blue sky at f22, taken to illustrate the extent of the problem.
I took the camera to the shop today, they wouldn't replace the body, so I had to send it in to Nikon for repair. It will be gone for about 2 weeks after only 10 days of use. I am glad I didn't sell my K-5 (just most of its lenses).
It's a real shame as I was just getting used to the camera and liking what it can do. I'd stil recommend this camera, but I'd wait a year until they have fixed this quality control issue.
This is what I get for breaking my rule and buying a new product Day 1.
Oh well, I have got some spots to remove in Lightroom for the next batch of Kusatsu pictures...
For those who've wondered at my probably annoyingly often references to the damage to my camera, here it is in all its glory.
The only reason I'm sharing this is because of the amazing flare my 10-20mm produced here.
Do you clean your own sensor? I bought the MARUMI Low Pass Filter Cleaning kit which I will attempt to use next time I have dust on the sensor. Getting tired of having the camera shop do it.
Lighting details: SB800 on camera bounced off ceiling. SB600 handheld pointed at a 1m diameter reflector on the floor angled to point to me. Triggered with Nikon CLS.
Agfa Optima Sensor compact 35mm camera
Specifications:-
Type: 35mm compact camera
Size: 104 mm x 68 mm x 54 mm (W x H x D)
Image Format: 24 x 36 mm (W x H)
Lens: Agfa Solitar, 40 mm f/2.8
Diaphragm: Automatic f/2.8 to f/22
Focusing: Manual scale pictograms on top of the focus ring/ meter/feet scale on bottom, focusing 3ft/1.09m - infinity
Shutter Speeds: 1/500 second - 15 seconds
Viewfinder: Large direct finder with parallax marks for near focus
Film Loading: Manual
Film Transport: Manual single stroke lever, also used to rewind film when the 'R' button is depressed and turned
Film Speeds: 25 ASA/15 DIN to 500 ASA/28 DIN, selected on a ring around the lens
Flash Contact: Hot shoe, aperture selected manually with flash
Cable Release Socket: On left hand side of the camera body
Tripod Socket: 1/4 in. on right hand side which doubles as camera strap attachment
Battery: 3 V625U batteries, located by opening the camera back
SNL Dennis Roach with a Comparative Vacuum Monitoring (CVM) Sensor showing galleries etched-sensors underside. He lead team that's evaluating some-sensors for Structural Health Monitoring (SHM) aircraft and safety equipment.
The Comparative Vacuum Monitoring sensor is a self-adhesive rubber patch, ranging from dime-to credit-card-sized. The rubber's underside is laser-etched with rows of tiny interconnected channels or galleries to which an air pressure is applied. Any propagating crack in the materials under the sensor breaches the galleries and the resulting change in pressure in monitored. The sensors are made by Structure Monitoring Systems, Inc. (SMS) of Australia, are in expensive, reliable, durable, and easy to apply. They provide equal or better sensitivity than is achievable with conventional inspection methods. Besides, aircraft, SHM techniques could monitor the structural well-being of spacecraft, weapons, rail cars, bridges, oil recovery equipment, buildings, armored vehicles, ships, wind turbines, nuclear power plants, and fuel tanks in hydrogen vehicles.
For more information or additional images, please contact 202-586-5251.
A Jena-Optronik technician in Jena, Germany, stands with a lidar sensor. On future Artemis missions to the Moon, lidar sensors will be used to help Orion dock with other spacecraft.
Credits: NASA–R. Sinyak
In the final version we poked the reed switch out more so it could be closer to the magnet on the wheel.
Arduino + Pmr + RTTY = Remote Temperature Sensor
emmanuelgranatello.blogspot.it/2012/08/remote-temperature...