TRANSMISSION THE WAVE HOW STREAMING FILE HOSTING WATCH ANON VIA VPN
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- Directors: Gille Klabin
- Release Year: 2019
- duration: 1Hours, 30Minute
- actors: Justin Long
- Writed by: Carl W. Lucas
This lesson will explain what is meant by 'transmission of light. discuss the ways that light can be transmitted through a medium, and also explore how light is measured. Transmission of Light Defined Visible light is the reason we are able to see anything at all. Light moves as a wave, bouncing off objects so we can see them. Without it, we'd be in complete darkness. But, in physics, light can refer to any kind of electromagnetic wave: radio waves, microwaves, infrared, visible light, ultraviolet, X-rays, or gamma rays. When you shine light on an object, a number of things can happen. Reflection is when light bounces off of a surface. Specular reflection is when light reflects off of a shiny surface like a mirror. Diffuse reflection, however, is when light illuminates a dull object. Another thing it can do is move through the material, and depending on exactly how it does this, we might call it transmission, refraction, or absorption. We will discuss each in more detail in this lesson, but transmission of light is when light waves move all the way through a material without being absorbed. Transmittance When light moves through a transparent (or semi-transparent) material, it can be transmitted, absorbed, or reflected. The transmittance of a material is the proportion of the incident (approaching) light that moves all the way through to the other side. For example, let's say you're shining a flashlight on a semi-transparent glass block. You start off with 100% of your incident light. The first thing that happens is that 30% of that light is reflected off the outer surface of the glass. This leaves you with 70% to continue through the glass block. Another 50% of the light is absorbed by the molecules inside the glass block itself. That leaves you with 20% that emerges from the opposite side. So you could say that the glass block has a transmittance of 20. The transmittance of a material depends on its thickness, but it also depends on the type of light (or electromagnetic waves) you are using. A material might have a different transmittance for visible light than it does for infrared, or X-rays. This is why hospital X-rays go through your skin until they reach the bones, even though visible light does not.
Transmission the wave definition. My ss teacher told me about this and now Im watching it. Transmission the wave reviews. FINALLYYYYYYY WILL I LISTEN MY WHOLE LIFE TO THIS SONG. HELL YEAH, HELL YEAH. Transmission the wave review. Transmission the wave song.
I like Deep Impact. Its scary but cool at the same time. Coming soon👍🏻👍🏻. Post #1 of 19 ( permalink) Old 09-24-2014, 07:48 PM Thread Starter Member Join Date: Oct 2013 Posts: 59 How to prevent a wave plate related transmission issue/failure? I have read, seen, heard and watched (in horror) what occurs when the wave plate fails in the doomed by design 6T75 6-speed transmission inside our Outlooks. I haven't had any transmission issues so far and i'd rather keep it that way, so this leads me to my question: Is there a way to prevent failure? Is GM offering an updated wave plate or modification to the 6T75 transmission that could be performed that wouldn't require the replacement of the Transmission? Is there another compatible transmission for the Outlook? I saw somebody say "Have it fixed now and pay 750 or wait and pay 3, 000" on the Acadia forum (with no reference to an actual fix) I have just crossed the 100, 000 mile mark and my local GM dealership doesn't care for me or my discontinued Outlook. Every time I go in there for recall work they talk-down my car and say that it probably would be best for me to just buy a new one. To be quite honest I don't really care for the chiseled appearance of the newer GM vehicles anyway and I really rather not start new car shopping. 2007 Saturn Outlook XR FWD Ocean Mist, Convenience Package, Advanced Audio Package, Premium Trim Package, XM Satellite Radio -Service, Advanced Theft Recovery, Custom Tent: 3rd Row Dealer Installed. Just Hit 100, 000 Miles (As of July 2nd 2014) 6 Disk CD Player (Kinda funny to think about it now) Sponsored Links Advertisement post #2 of 19 ( permalink) 09-25-2014, 05:29 AM Senior Member Join Date: Aug 2008 Posts: 142 Re: How to prevent a wave-plate related transmission issue/failure? I have been thinking about the same thing. "Fixing" it now instead of waiting for the transmission to blow up. Tim 2008 Outlook XR AWD
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Enhanced Convenience Pkg. post #3 of 19 ( permalink) 09-25-2014, 02:01 PM Join Date: Oct 2009 Posts: 754 the fix is to have the actual 3-5-R wave plate removed and replaced with the updated part. and the trans price can be as high as 4500 as some have found. so 600-750 looks really nice. 2010 FWD LT1-Gold Mist Metallic- seats 8.
Build Date- July 31, 2009-2nd day of Spring Hill 2010 production.
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2003 Trailblazer 4. 2L-170, 500 post #4 of 19 ( permalink) 09-25-2014, 10:53 PM Quote: Originally Posted by rbarrios Part # or any other reference # for the part? I'm also assuming that the 600-750 price range also includes labor. Is that also the rate for dealership work or independent mechanic? Thanks. post #5 of 19 ( permalink) 09-25-2014, 11:15 PM Join Date: Jul 2012 Posts: 107 I would find another GM dealership if they continue to be disrespectful towards you. "Fixing" something BEFORE it breaks is a new one to me. We had to replace the transmission in our 2008 Outlook a while back, and never thought of dropping 700 and up on something that MIGHT break. My car dirty, is cleaner than your car clean.
2008 Outlook XE AWD Ocean Mist post #6 of 19 ( permalink) 09-25-2014, 11:45 PM Originally Posted by mswerb Thanks I totally agree, it really does nauseate me that I am going to have to drop 700 on something that I am not responsible for. I was passing somebody today and when I accelerated and my passengers and I felt and heard (a big change in revs) a really hard shift. I have been very careful driving and have noticed no other issues. FYI to anybody who is curious I do not plan on and WILL NOT pay the asking price the dealership will want for the repair no matter the price. I shouldn't be responsible for paying for GM and Ford's mistakes and I don't plan on it. post #7 of 19 ( permalink) 09-26-2014, 01:14 PM Its not a matter of it MIGHT break... It WILL break. The 35R wave plaves were not heat treated properly. and will eventually break. From what Ive read- its based on the amount of shifts that take place. THink of it this way... Around 90, 000 to 120, 000 miles. many folks get Transmission fluid changed (flushes as some places will call them) performed and pay what- 200-300? If a shop replaced the part for 600 or so- that will include new trans fluid... The price quoted is from independent shops. I believe there are several on the Acadia forum who have already had this done. post #8 of 19 ( permalink) 09-26-2014, 01:19 PM post #9 of 19 ( permalink) 09-28-2014, 01:22 AM Join Date: Feb 2010 Posts: 131 In the case of my '09 Outlook, with 66K miles, the transmission developed a leak at the case halves. Under GMPP, the dealership had to drop the engine and transmission, and then remove the transmission and split the cases. Since the cases were being split, I had them also replace the 3-5-R plate (actually, it comes in a kit - P/N 24240100, 52. 42. '09 XR, AWD, all options except rear DVD entertainment post #10 of 19 ( permalink) 09-29-2014, 12:49 AM Originally Posted by XRDreamliner Wait, you are saying that the part it's self is 50? I cannot stand the poor attention to detail and design that only GM has been able to achieve. Their cheapness and carelessness for the quality of parts they put into their cars is unacceptable. So I guess I just need to buy the part and find somebody willing and trustworthy enough to do the work at a reasonable price. Thanks for the Part # 2007 Saturn Outlook XR FWD Ocean Mist, Convenience Package, Advanced Audio Package, Premium Trim Package, XM Satellite Radio -Service, Advanced Theft Recovery, Custom Tent: 3rd Row Dealer Installed. Just Hit 100, 000 Miles (As of July 2nd 2014) 6 Disk CD Player (Kinda funny to think about it now.
He forgot the Russian sleep experiment. 
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Transmission waves definition. That 11:33 sec was worth watching. thanks. Transmission the wave video. Transmission waveguide. TRANSMISSION THE wave 3. Transmission waves physics. Refreshing tune, good lines, trippy video that throws us back to early '90s way of making music videos. Loved it. 1:05 His Portrait! 😂. 
Sound waves are pressure waves that travel through Earth 's crust, water bodies, and atmosphere. Natural sound frequencies specify the frequency attributes of sound waves that will efficiently induce vibration in a body (e. g., the tympanic membrane of the ear) or that naturally result from the vibration of that body. Sound waves are created by a disturbance that then propagates through a medium (e. g., crust, water, air. Individual particles are not transmitted with the wave, but the propagation of the wave causes particles (e. g., individual air molecules) to oscillate about an equilibrium position. Every object has a unique natural frequency of vibration. Vibration can be induced by the direct forcible disturbance of an object or by the forcible disturbance of the medium in contact with an object (e. g. the surrounding air or water. Once excited, all such vibrators (i. e., vibratory bodies) become generators of sound waves. For example, when a rock falls, the surrounding air and impacted crust undergo sinusoidal oscillations and generate a sound wave. Vibratory bodies can also absorb sound waves. Vibrating bodies can, however, efficiently vibrate only at certain frequencies called the natural frequencies of oscillation. In the case of a tuning fork, if a traveling sinusoidal sound wave has the same frequency as the sound wave naturally produced by the oscillations of the tuning fork, the traveling pressure wave can induce vibration of the tuning fork at that particular frequency. Mechanical resonance occurs with the application of a periodic force at the same frequency as the natural vibration frequency. Accordingly, as the pressure fluctuations in a resonant traveling sound wave strike the prongs of the fork, the prongs experience successive forces at appropriate intervals to produce sound generation at the natural vibrational or natural sound frequency. If the resonant traveling wave continues to exert force, the amplitude of oscillation of the tuning fork will increase and the sound wave emanating from the tuning fork will grow stronger. If the frequencies are within the range of human hearing, the sound will seem to grow louder. Singers are able to break glass by loudly singing a note at the natural vibrational frequency of the glass. Vibrations induced in the glass can become so strong that the glass exceeds its elastic limit and breaks. Similar phenomena occur in rock formations. All objects have a natural frequency or set of frequencies at which they vibrate. Sound waves can potentiate or cancel in accord with the principle of superposition and whether they are in phase or out of phase with each other. Waves of all forms can undergo constructive or destructive interference. Sound waves also exhibit Doppler shifts — an apparent change in frequency due to relative motion between the source of sound emission and the receiving point. When sound waves move toward an observer the Doppler effect shifts observed frequencies higher. When sound waves move away from an observer the Doppler effect shifted observed frequencies lower. The Doppler effect is commonly and easily observed in the passage of planes, trains, and automobiles. The speed of propagation of a sound wave is dependent upon the density of the medium of transmission. Weather conditions (e. g., temperature, pressure, humidity, etc. and certain geophysical and topographical features (e. g., mountains or hills) can obstruct sound transmission. The alteration of sound waves by commonly encountered meteorological conditions is generally negligible except when the sound waves propagate over long distances or emanate from a high frequency source. In the extreme cases, atmospheric conditions can bend or alter sound wave transmission. The speed of sound through a fluid — inclusive in this definition of "fluid" are atmospheric gases — depends upon the temperature and density of the fluid. Sound waves travel faster at higher temperature and density of medium. As a result, in a standard atmosphere, the speed of sound (reflected in the Mach number) lowers with increasing altitude. Meteorological conditions that create layers of air at dramatically different temperatures can refract sound waves. The speed of sound in water is approximately four times faster than the speed of sound in air. SONAR sounding of ocean terrain is a common tool of oceanographers. Properties such as pressure, temperature, and salinity also affect the speed of sound in water. Because sound travels so well under water, many marine biologists argue that the introduction of man-made noise (e. g., engine noise, propeller cavitation, etc) into the oceans within the last two centuries interferes with previously evolutionarily well-adapted methods of sound communication between marine animals. For example, man-made noise has been demonstrated to interfere with long-range communications of whales. Although the long term implications of this interference are not fully understood, many marine biologists fear that this interference could impact whale mating and lead to further population reductions or extinction. See also Aerodynamics; Atmospheric composition and structure; Atmospheric inversion layers; Electromagnetic spectrum; Energy transformations; Seismograph; Seismology.
Who tf is ‘after. Force Majeure Remake. TRANSMISSION THE waverly. Transmission the wave movie. 50% Vinai 50% Vinai perfect😄. 1:18 when people are running to see who can get to recess first in elementary school and you help your friend from getting trampled on. Transmission the wave full. Light waves across the electromagnetic spectrum behave in similar ways. When a light wave encounters an object, they are either transmitted, reflected, absorbed, refracted, polarized, diffracted, or scattered depending on the composition of the object and the wavelength of the light. Specialized instruments onboard NASA spacecraft and airplanes collect data on how electromagnetic waves behave when they interact with matter. These data can reveal the physical and chemical composition of matter. Reflection Reflection is when incident light (incoming light) hits an object and bounces off. Very smooth surfaces such as mirrors reflect almost all incident light. The color of an object is actually the wavelengths of the light reflected while all other wavelengths are absorbed. Color, in this case, refers to the different wavelengths of light in the visible light spectrum perceived by our eyes. The physical and chemical composition of matter determines which wavelength (or color) is reflected. This reflective behavior of light is used by lasers onboard NASA's Lunar Reconnaissance Orbiter to map the surface of the Moon. The instrument measures the time it takes a laser pulse to hit the surface and return. The longer the response time, the farther away the surface and lower the elevation. A shorter response time means the surface is closer or higher in elevation. In this image of the Moon's southern hemisphere, low elevations are shown as purple and blue, and high elevations are shown in red and brown. Credit: NASA/Goddard Absorption Absorption occurs when photons from incident light hit atoms and molecules and cause them to vibrate. The more an object's molecules move and vibrate, the hotter it becomes. This heat is then emitted from the object as thermal energy. Some objects, such as darker colored objects, absorb more incident light energy than others. For example, black pavement absorbs most visible and UV energy and reflects very little, while a light-colored concrete sidewalk reflects more energy than it absorbs. Thus, the black pavement is hotter than the sidewalk on a hot summer day. Photons bounce around during this absorption process and lose bits of energy to numerous molecules along the way. This thermal energy then radiates in the form of longer wavelength infrared energy. Thermal radiation from the energy-absorbing asphalt and roofs in a city can raise its surface temperature by as much as 10 Celsius. The Landsat 7 satellite image below shows the city of Atlanta as an island of heat compared to the surrounding area. Sometimes this warming of air above cities can influence weather, which is called the "urban heat island" effect. Credit: Marit Jentoft-Nilsen, based on Landsat-7 data. Diffraction Diffraction is the bending and spreading of waves around an obstacle. It is most pronounced when a light wave strikes an object with a size comparable to its own wavelength. An instrument called a spectrometer uses diffraction to separate light into a range of wavelengths—a spectrum. In the case of visible light, the separation of wavelengths through diffraction results in a rainbow. A spectrometer uses diffraction (and the subsequent interference) of light from slits or gratings to separate wavelengths. Faint peaks of energy at specific wavelengths can then be detected and recorded. A graph of these data is called a spectral signature. Patterns in a spectral signature help scientists identify the physical condition and composition of stellar and interstellar matter. The graph below from the SPIRE infrared spectrometer onboard the ESA (European Space Agency) Herschel space telescope reveals strong emission lines from carbon monoxide (CO) atomic carbon, and ionized nitrogen in Galaxy M82. Credit: ESA/NASA/JPL-Caltech Scatter Scattering occurs when light bounces off an object in a variety of directions. The amount of scattering that takes place depends on the wavelength of the light and the size and structure of the object. The sky appears blue because of this scattering behavior. Light at shorter wavelengths—blue and violet—is scattered by nitrogen and oxygen as it passes through the atmosphere. Longer wavelengths of light—red and yellow—transmit through the atmosphere. This scattering of light at shorter wavelengths illuminates the skies with light from the blue and violet end of the visible spectrum. Even though violet is scattered more than blue, the sky looks blue to us because our eyes are more sensitive to blue light. Aerosols in the atmosphere can also scatter light. NASA's Cloud-Aerosol Lidar and Infrared Pathfinder Satellite Observation (CALIPSO) satellite can observe the scattering of laser pulses to "see" the distributions of aerosols from sources such as dust storms and forest fires. The image below shows a volcanic ash cloud drifting over Europe from an eruption of Iceland's Eyjafjallajökull Volcano in 2010. Credit: NASA/GSFC/LaRC/JPL, MISR Team Refraction Refraction is when light waves change direction as they pass from one medium to another. Light travels slower in air than in a vacuum, and even slower in water. As light travels into a different medium, the change in speed bends the light. Different wavelengths of light are slowed at different rates, which causes them to bend at different angles. For example, when the full spectrum of visible light travels through the glass of a prism, the wavelengths are separated into the colors of the rainbow. Top of Page, Next: Visualization: From Energy to Image Citation APA National Aeronautics and Space Administration, Science Mission Directorate. (2010. Wave Behaviors. Retrieved [insert date - e. g. August 10, 2016] from NASA Science website: MLA Science Mission Directorate. "Wave Behaviors" NASA Science. 2010. National Aeronautics and Space Administration. [insert date - e. 10 Aug. 2016.
WhOs Not here bc Of afteR UGhhhhH people come from films CHILL dog. Looks great. I'm here for After. Clip #5 2012: Theres some serious cross-contamination going on there. This Shit beautiful ASF 🌹. TRANSMISSION THE waves. Transmission the wave band. 
Travelling wave on transmission line is the voltage / current waves which propagate from the source end to the load end during the transient condition. These waves travel along the line with the velocity equal to velocity of light if line losses are neglected. But practically there always exists some line loss and hence these waves propagate along the line with velocity somewhat lower than the velocity of light. Concept of Travelling Wave We know that short transmission line and medium transmission line are studied by their equivalent T or π model. But these models are only useful to study and analyze the steady state response of the line. In case where we are interested in the study of transient behavior, these models are not useful as the line parameters are actually not lumped rather they are non-uniformly distributed over the entire length of the line. For transient analysis, it is very important to consider the line parameters like shunt capacitance and inductance to be distributed and hence their effect must be considered. Let us consider a lossless transmission line. Let L and C be the inductance and capacitance per unit length of the line. The above transmission line can be represented by its equivalent circuit having L and C distributed over the whole line as shown below. When the switch S is closed, the voltage at the load end does not appear immediately at the load end. As soon as the Switch S is closed, inductance L1 acts as open circuit and capacitance C1 acts as short circuit. Therefore as far as the capacitor C1 is not charged to some value, the charging of C2 through L2 is not possible. This means that charging of C2 through L2 will take some finite time. Similar reasoning applies to the other successive sections. Thus we see that whenever switch S is closed, there is a gradual voltage build up from the source end to the load end over the transmission line. This gradual voltage build up can be thought of due to a voltage wave travelling from one end to the other and the gradual charging of capacitor through inductor is due to current wave. Let us understand this voltage and current wave in different wave by taking one analogy. Replace the switch S by water valve and each section of inductor and capacitor by a water tank as shown below. When the water valve is opened, tank A will first fill up to the level of interconnection between the tanks due to flow of water from the valve. This water flow is the flow of current through the inductor L. And the tank level is nothing but the voltage developed across the shunt capacitor C. Once the tank A is filled up, tank B will start filling and when it is also filled up to the level, tank C will start to fill. This means that the filling of tank C will be complete after some finite time and not immediately. Thus the flow of water from tank A to tank C can be assumed as a wave propagating from tank A to tank C. Similarly, the tank levels can also be thought of a wave moving from tank A to tank C. Hope you understood the phenomenon of travelling wave on transmission line by this simple analogy. Till now, we understood that there are current and voltage wave travelling over the line. Now we want to get the relationship between these two waves. Relationship between Voltage and Current Wave: Let the voltage wave and current wave travels a distance x in time t. Therefore the inductance and capacitance of line up to distance x will be Lx and Cx respectively. Let this wave travels a distance dx in time dt. Since line is assumed to be lossless, whatever is the value of voltage wave and current wave at the beginning, the same will be at any time t. This means that, the magnitude of voltage and current wave at time t will be V and I respectively. Hence the stored charge in shunt capacitance Q = VCx and the flux in the series inductance Ø = ILx But I = dQ/dt = CVdx/dt But dx/dt = velocity of travelling wave = ν (say) Therefore, I = CVν ……. (1) The voltage developed across the shunt capacitance, V= dØ/dt =ILdx/dt = ILν ⇒V = ILν ………. (2) Dividing equation (1) and (2) we get V / I = IL / CV (V/I) 2 = L/C V/I = √(L/C) The above expression is the ratio of voltage and current having the dimension of impedance. Therefore it is called Surge Impedance. Note that Surge Impedance is the square root of ratio of series inductance L per unit length of line and shunt capacitance C per unit length of line. This simply means that this value will remain constant for a given transmission line. This value will not change due to change in length of line. The value of surge impedance for a typical transmission line is around 400 Ohm and that for a cable is around 40 ohm. Notice that the value of surge impedance for cable is less than that of transmission line. This is due to the higher value of capacitance of cable compared to the transmission line. Velocity of Travelling Wave: To get velocity of travelling wave, multiply (1) and (2) as below. VI. CVν) x (LIν) ν 2 = 1/LC ν = √(1/LC) ……. 3) The above expression is the velocity of travelling wave. Since L and C are per unit values, the velocity of travelling wave is constant. For overhead line the values of L and C are given as L = 2×10 -7 ln(d/r) Henry / m C = 2πε / ln (d/r) From (3) the velocity of travelling wave for overhead line ν = 1. 2×10 -7 ln(d/r. 2πε / ln (d/r. 1/2 = 1/ 4πεx10 -7] 1/2 The permittivity of air, ε. 1/36π) x 10 -9 Therefore, ν = 1. 4πx(1/36π) x 10 -9 x10 -7] 1/2 = 3 x10 8 m/sec. From the above expression, we can have following conclusions: The velocity of travelling wave for a lossless line is equal to the speed of light. Since the cable core is surrounded by insulations and sheath, its relative permittivity ε r >1 and hence ε = ε 0 ε r > ε 0 (permittivity of air. Therefore the speed of travelling wave on cable is less than that of transmission line.
What camera are you using at 6:53 please, I like the look of that footage and need a new camera. Great video. I am coming over from Ireland next week if Thomas Cook airlines doesn't go into administration before I fly. Looking forward now to at least trying for a Wave permit.
Transmission the wave trailer
The world doesn't end. Humanity ends
Transmission waves. JEEPERS CREEPER. After I clicked I thought I saw Matt Damon in the title, but it was actually Matt Dillon. Phew. Your channel is amazing😍🎼🎼🎼thank you. Transmission the wave chart. This looks Amazing. I am so in. You belong to the Mordeo now.
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