58 ;;Quote: only the theory itself can decide what is and is not observable

58 ;;Quote: quantum mechanics has indeterminacy relations where mechanical variables are associated in conjugate pairs

59 ;;Quote: complementarity is particle-wave duality applied to indeterminacy relations; indeterminacy ensures the internal consistency of each extreme view

59+;;Quote: momentum-energy indeterminacy refers to particles while space-time indeterminacy refers to waves

abstract ;;Quote: the statistical relations of quantum mechanics are due to the indeterminacy of conjugate quantities such as momentum and energy

63 ;;Quote: processes are discontinuous in small regions and short times; it is clearly meaningless to speak about one velocity at one position

64 ;;Quote: the product of location precision and momentum precision is proportional to Plank's constant

68 ;;Quote: concepts of classical, physical theory have an exact analog for atomic processes; but, conjugate quantities suffer an indeterminacy purely by the observational procedures

68 ;;Quote: the word "simultaneous" requires the speed of light; sharper definitions are not possible; a constant speed of light does not contradict concepts of position, velocity, and time

76 ;;Quote: consider reflection of a beam of electrons at a grating; if we know where an electron hits, its velocity must be so high that its de Broglie wavelength is much smaller than the grating, yielding classical reflection

82 ;;Quote: quantum-theoretical quantity is a matrix whose diagonal is the classical value with nondiagonal terms as the uncertainty

83 ;;Quote: the laws of conservation of momentum and energy hold exactly in quantum mechanics

83+;;Quote: "When we know the present precisely, we can predict the future" is not the conclusion but the assumption; observation is a selection that limits what is possible; quantum mechanics establishes the final failure of causality

83 ;;Quote: physics should only describe the correlation of observations; there is no real world with causality