Gyro Images Free Download
Justina Pniewski
So coming from the Sony A73, of which the gyroscope sensor in the camera can automatically rotate the image in playback based on how you hold the camera, I'm wondering if there is any way to replicate that in the R5/R6.
Thanks guys, seems like there is no way to perform auto-rotate after all, which is a shame considering it's not a hardware limitation (the gyro sensor is there so the camera knows which picture you took in portrait vs landscape mode, it's just not used while in playback).
Not sure I fully understand the problem. The camera senses whether it was being held in landscape or portrait orientation. If Auto Rotate is set to either of the 'On' settings it records this in the EXIF data so that when the image is displayed on a computer the software will know the correct orientation. The difference between the first and second 'On' settings controls the behaviour for reviewing images on the camera LCD or EVF, so you can choose whether to view a portrait image:
- Rotated - convenient if scanning through lots of images for example, and it might be especially preferable when using the EVF to review images. But it means the image display has to be much smaller to fit.
Thanks, that's exactly what I wanted to say. Sorry if my wording was not clear enough. In short, think of the behavior of a smartphone when viewing images. If you continuously rotate the screen, the image will either fill the screen or have black bars. That's what I wanted to do with the R5/R6 (which doesn't offer such functionality, you need to go to the settings again to manually switch between the two modes without having access to it on-the-fly).
Make your own Greek Gyro Meat at home with this gyro meat recipe. It's so simple to make, but it is authentic and turns out delicious. If you've ever wanted to make restaurant-style gyros at a home, you've found the best gyro meat recipe ever.
I totally get that it's close to heresy to make a middle-eastern dish eaten originally by Muslims and Jews using Pork. I do, I get it. But if I want my son to eat any of it? No lamb gyros.
I've seen many Instant Pot Recipes for Gyros that use sliced meat and they just really don't seem that authentic to me, so I use the same technique as below to form the gyro loaf, but then I cook it in the Instant Pot.
What I like about gyros is that you can make the gyro meat at home, and then the keto folks can eat the meat with a few other side dishes, while the non keto family members can chow down the meat with the pita.
So use either the oven, or the Instant Pot, and enjoy your homemade gyro meat recipe! If you love this recipe as much as I do, share this recipe with your friends on Facebook or Pin it to make again later.
So looking forward to trying this. Thank you! Ethically it bothers me to slaughter animals before they have a chance to grow up no matter how humanely it is done, especially if they are still under their mother's care, but I love gyro meat. Now I can have it without my conscience bothering me.
Absolutely awesome recipe! It took some time but was so worth it! We will most certainly make this again. It is strong on the spices so I might cut back a little, just a smidge. Spot on gyro loaf recipe, Urvashi you did it again!
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PACIFIC OCEAN (Oct. 24, 2018) Quartermaster 3rd Class Vhlake Abangan, from Temecula, California, records a gyro error on the compass of a telescopic alidade after shooting an azimuth on the bridge wing of the Arleigh Burke-class guided-missile destroyer USS Spruance (DDG 111). Spruance is currently conducting routine operations as part of Carrier Strike Group (CSG) 3 in the U.S. 3rd Fleet area of operations. (U.S. Navy photo by Mass Communication Specialist 2nd Class Ryan D. McLearnon)
PM fiber for gyroscope coils operating at 830nm, 1310nm, and 1550nm. The 80µm cladding diameter means long coils can be wound in a small package, increasing FOG accuracy and fiber reliability. Our optimized coating packages and tightly controlled coating diameters enable high accuracy coil winding.
OIS is a hardware solution that uses a micro-electromechanical system (MEMS) gyroscope to detect movement and adjust the camera system accordingly. For example, if you are holding your smartphone and your hand moves slightly to the left, the OIS system will pick up on this and shift the camera slightly to the right.
In addition to image stabilization utilizing gyro and lens data recorded during shooting, lens breathing compensation is supported as well.Breathing is a phenomenon in which changes in the angle of view occur as the focus position varies. Manual adjustment of the amount of compensation is also supported, allowing for more precise image stabilization and lens breathing compensation in post-production (after you shoot).
Two-axis MEMS rate gyroscope sensor, the ICG-1020S, comes with integrated 16-bit ADCs and signal conditioning with two axes XY configuration. After the signal is digitized, data is processed through a digital filter and output through sensor data registers. Besides, the ICG-1020S is also characterized by high resolution and low RMS noise, noise density, a fast sample rate at up to 32kHz, and low power consumption.
Gravity Probe B has nearly completed the Initial On-Orbit Calibration Phase of the Mission. Last week we completed the fast speed spin-up of all four gyros. This week we completed the low temperature bakeout of the probe and expect to complete spin-axis alignment of the final two gyroscopes this weekend. Prior to starting the Science Phase of the Mission, we decided to increase the roll rate of the spacecraft from .52rpm to .75rpm which will improve the accuracy of the experiment and minimize the risk of achieving a good measurement in the event of a shortened mission. We plan to increase the roll rate early next week. At that point we will transition to the Science Phase of the mission.The low temperature bakeout operation was done in order to minimize the pressure inside the vacuum probe. The resulting low pressure, or ultra-high vacuum, is required to minimize the spindown rate and torques on the gyroscopes. The low temperature bakeout process involved heating the probe to approximately 6-7 degrees Kelvin while the probe was open to the vacuum of space. This allowed excess helium gas to escape to space. The probe was then closed to space and the heaters turned off. The probe temperature then returned to its nominal value and the remaining helium was adsorbed into the cryopump. The cryopump is a passive device made of sintered titanium, which has a very large adsorbing area. GP-B's low temperature bakeout process created pressure inside the vacuum probe less than one thousandth that of space.We continued to perform spin axis alignment of the gyroscopes this week. This is performed using the Gyro Suspension System in a special oscillation mode to slowly align each gyro spin axis to be in nearly perfect alignment with the Guidestar. Having the gyros aligned at the beginning of the mission makes any precession caused by general relativity simpler to measure. Thus far, we've completed the alignment of gyro #1 and #2. Gyro's #3 and #4 should be completed this weekend.After much analysis and discussion this week we decided to increase spacecraft roll rate during the science mission from .52 rpm to .75 rpm. A .75 rpm roll rate minimizes the risk of events which might occur that could cause degradation to the accuracy of the mission. In addition, by combining the factors that influence gyro accuracy and guide star acquisition, this relatively small increase in roll rate should produce a 20% improvement in the overall accuracy of the experiment. We expect to perform this operation beginning Monday. Assuming success, we then will begin drag-free operation with the start of the Science Mission Phase later next week.The spacecraft is being controlled from the Gravity Probe B Mission Operations Center, located here at Stanford University. The Stanford-NASA/MSFC-Lockheed Martin operations team is continuing to perform superbly. Images & Photos: The diagram of the gyro rotor and housings is also from the GP-B Image Archive. The first photo, showing the GP-B gyroscope rotor (sphere) and housings, was taken by photographer Don Harlan. In the next two photos, taken by GP-B Public Affairs Coordinator, Bob Kahn, team members in the GP-B Mission Operations Center here at Stanford are spinning up gyro #4 to full speed. Click on the thumbnails to view enlarged copies of these images.
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