Abstract: Use of adsorption, desorption, particle injection and other means to excite electrons to a region on their band structure diagram near an inflection point were the transient effective mass is elevated proportional to the inverse of curvature. These transient heavy electrons may then cause transmutations similar to transmutations catalyzed by the muons used by Alvarez at UC Berkeley during 1956 in liquid hydrogen. The heavy electrons may also control chemical reactions.

Abstract: In some embodiments, energy is released by converting the bonding potential energy between two electropositive masses capable of forming a stable bond between them into the kinetic energy of an electron quasiparticle initially captured between them by the coulomb potential. The electron quasiparticles form transient bonds with delocalized ions and other reactants in or on a reaction particle where reaction rates and branches are controlled by the choice of electron quasiparticle effective mass. Methods and apparatus for stimulating and controlling such association reactions are shown and described. Thermionic and semiconductor methods and apparatus convert the electron quasiparticle energy directly into electricity. Other embodiments are disclosed.

Abstract: A binding reaction creates transient, elevated effective mass electron quasiparticles as surrogates for a heavier muon, to cause muon-catalyzed fusion transmutations with the surrogates and creates a composition of matter that enables neutralizing certain radioactive waste nuclei. Tailoring a junction of a device enhances the control of the surrogate's transient effective mass.

Abstract: In some embodiments, energy is released by converting the bonding potential energy between two electropositive masses capable of forming a stable bond between them into the kinetic energy of an electron quasiparticle initially captured between them by the coulomb potential. The electron quasiparticles form transient bonds with delocalized ions and other reactants in or on a reaction particle where reaction rates and branches are controlled by the choice of electron quasiparticle effective mass. Methods and apparatus for stimulating and controlling such association reactions are shown and described. Thermionic and semiconductor methods and apparatus convert the electron quasiparticle energy directly into electricity. Other embodiments are disclosed.

Abstract: The bi-stability of electrophoretic and gyricon display technologies allows a display to maintain its image for a period of time without the driving electronics activated. The watch takes advantage of this attribute by being powered once a minute. This minimizes power consumption while not decreasing the functionality of the watch. Unlike LCDs, every segment of an electrophoretic display can be addressed by a conductive matrix, even segments encircled by other addressable segments. This allows the watch to have a visual alarm wherein every segment is inverted at a predetermined rate. In other words, time could be displayed in dark numbers against a light background. The image would then be inverted so that the light numbers would be displayed on a dark background. The display can be purposefully forced to all light or all dark until the users queries the watch for the time. This provides an aesthetic effect until the user actually needs to see the time.

Abstract: A conventional pressure cuff is attached to a living test subject. First means are provided for changing pressure in the cuff and thereby applying pressure to the subject. Second means communicating with the cuff are provided for measuring a quantity proportional to a time-dependent fluctuating component representative of pulsatile pressure within a blood vessel of the subject, the second means having a frequency response adequate to accurately follow the subject's blood pressure waveform, for instance at least about five times the subject's pulse rate, whereby the fluctuating quantity is proportional to amplitude of pulsatile pressure. The maximum value of the fluctuating quantity is determined as applied cuff pressure is changed.

Abstract: A conventional pressure cuff is attached to a living test subject. First means are provided for changing pressure in the cuff and thereby applying pressure to the subject. Second means communicating with the cuff are provided for measuring a quantity proportional to a time-dependent fluctuating component representative of pulsatile pressure within a blood vessel of the subject, the second means having a frequency response of at least about five times the subject's pulse rate, whereby the fluctuating quantity is proportional to amplitude of pulsatile pressure. The maximum value of the fluctuating quantity is determined as applied cuff pressure is changed. Third means are provided for determining when the fluctuating quantity is about one-half its maximum value for applied cuff pressure greater than the pressure applied when the maximum value occurred or resulted.