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  1. Question #cb61c - Socratic

    Start with r = root(3)(GMT^2/(4pi^2)) Reference Orbital period r = root(3)(GMT^2/(4pi^2)) Where r is the radius of the orbit, measured …

  2. Question #66004 - Socratic

    Mar 23, 2016 · Explanation: The idea here is that you need to use the ideal gas law equation to find a relationship between the …

  3. Question #eeef3 - Socratic

    I'll assume you mean (in a more clear formatting) the magnitude of vector vecV, which is 2hati - 3hatj. Finding the magnitude of a …

  4. Question #f01e8 - Socratic

    That weighs what.....grams, pounds, carats...? For density we take the quotient....rho_"density"="mass"/"volume". I forget what …

  5. Question #99c7d - Socratic

    The ratio of the densities is 1:1.261. > We can use the Ideal Gas Law to answer this question. color (blue) (bar (ul (|color (white) …

  6. Question #88fd1 - Socratic

    M(a^2/2+d^2) where M and a are the mass and radius of the rod, respectively and d is the distance of the axis from the central axis …

  7. Question #5acbe - Socratic

    Although you have not formatted the question properly I think it is C. I suspect you meant C to be -1/3 and +5 Sometimes these are …

  8. Question #0c6f6 - Socratic

    his is a possessive pronoun. Adverbs are used mostly to describe verbs which are the action in the sentence, but they can describe …

  9. Question #59a26 - Socratic

    DeltaH_"rxn"^@ = -"18.8 kJ" "18.8 kJ" -> heat evolved Start by writing down the balanced chemical equation for this reaction …

  10. Question #bfcbb - Socratic

    May 19, 2017 · Copper has a molar mass of 63.546 g mol−1, which means that 1 mole of copper has a mass of 63.546 g. Now, in …