'0 cos' diaporamas de présentation

19. Galactic Rotation

19. Galactic Rotation The Galactic co-ordinate system is defined such that the Galactic midplane is defined by main plane of 21cm emission. The zero-point is defined by the direction towards the Galactic centre (GC), which is assumed to be coincident with Sagittarius A*.

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+ + + + + + + + + + + +

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Jeopardy

Jeopardy. Vector Components. Concepts. Calcu- lations. Pretty Pictures. Equations. $100. $100. $100. $100. $100. $200. $200. $200. $200. $200. $300. $300. $300. $300. $300. $400. $400. $400. $400. $400. $500. $500. $500. $500. $500. Final Jeopardy.

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Electromagnetic Waves

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Dario Papale Contributi: Vern Vanderbilt, TA- Quinn Hart, M. Meroni, CCRS

Remote sensing and modeling in forestry Lecture 7 Corrections and calibrations - 1. Dario Papale Contributi: Vern Vanderbilt, TA- Quinn Hart, M. Meroni, CCRS. Images corrections.

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Representation of Waves 1/2

Representation of Waves 1/2.

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Phasors and Complex Numbers

Phasors and Complex Numbers. Alan Murray. Complex Numbers Revision. j = ?(-1), so j 2 = -1 2,3, -4.75 are real numbers 2j, 3j, -4.75j are imaginary numbers (3.5 - 7.2j ) is a complex number With real and imaginary parts +3.5 and -7.2j respectively.

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S. Zhang, You-Soon Chang, A. Rosati, T. Delworth, W. Stern, R. Gudgel

Reanalyzed Oceanic Variability from Updated GFDL Ensemble Coupled Data Assimilation. The 4th WCRP International Conference on Reanalyses (ICR4) 7-11 May 2012, Silver Spring, Maryland. S. Zhang, You-Soon Chang, A. Rosati, T. Delworth, W. Stern, R. Gudgel. OUTLINE.

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Electrical Signals and Trigonometry

Electrical Signals and Trigonometry. Alan Murray. V L. I L. Agenda. Trigonometry and waves i.e. any old waves! Amplitude, phase and frequency Representing electrical signals Voltage, current Lead, lag, phase shift i.e. not any old waves “CIVIL” mnemonic to remember which way around. 3.

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Projectiles Fired at an Angle

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1. ???? ( instantaneous power )

i. +. N. u. _. 9.6 ????????. 1. ???? ( instantaneous power ). p. UI cos ?. i. ? t. O. ? p ???? , ?????????? ??. u. ? ????????. 2. ???? ( ???? ) P ?. P ??? :W. cos ? ??????. ? = ? u - ? i ? ?????. 0 ?? cos j ??1.

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PHYSICS 231 Lecture 6: Relative motion & a monkey

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Projectile Motion

Projectile Motion. Projectile Motion. You now have the machinery to derive the parametric equations for the path of a projectile. Assume that gravity is the only force acting on the projectile after it is launched. So, the motion occurs in a vertical plane, which can be

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EmcCalPi0 Overview

EmcCalPi0 Overview. historical overview current work planning. Why calibrate with pi0s?. know the mass plentiful produce photons in a wide range of energies useful for physics want to optimize resolution, linearity of calorimeter. Enrico Maly, ECP calibrations.

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Electromagnetic Waves

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Rotation And Scalling

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Projectile Motion Example Problem 1

Projectile Motion Example Problem 1.

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+ U 0 cos ?t

Electroreflectance. Photoreflectance. Xenon Lamp. Monochromator. Filter. DC signal. Dete c tor Si. Voltmeter. Laser He-Cd. Chopper. AC signal. Lock-in. Filter. ref. Modulation. U. Generator. + U 0 cos ?t. Sample.

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