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The primary use of pseudolite signals is for aircraft in terminal areas, so that a typical maximum reception range is 50 km At this range a half-hemisphere omnidirectional transmitting antenna fed with approximately 30 mW of signal power will provide a signal level comparable to that typical of a GPS satellite ( 116 dBm) At a range of 50 m the signal level will be 60 dB larger ( 56 dBm) 4 Pseudolite Message Structure Although the pseudolite data stream is 50 bps to assure compatibility with GPS receivers, its structure must be modi ed to transmit information that differs somewhat from that transmitted by the GPS satellites A proposed structure can be found in [112] 5 Minimum Physical Spacing of Pseudolites Placement of pseudolites involves considerations that depend on whether the pseudolites use the same or different Gold codes.

Separation of Pseudolites Using the Same Code One approach when two pseudolites use the same code is to synchronize the timing of the gated signals of the pseudolites and separate the pseudolites by a distance that guarantees that received transmissions from different pseudolites will not overlap This requires that the pseudolites be separated by at least 130 km, which guarantees that a user 50 km from the desired pseudolite will be at least 80 km from the undesired pseudolite The pulses from the latter will then travel at least 30 km further than those from the desired pseudolite, thus arriving at least 100 ms later Since the width of pulses is 9091 ms, pulses from two pseudolites will not overlap and interference is thereby avoided.

3.1 Solvent Effects on Acid-Base Reactions Tab. 3.5 Homoconjugation constants of acids [logKf(HA )] 2

However, a more conservative approach is to separate two pseudolites by a distance that is suf cient to guarantee that when the user is at the maximum usable range from one pseudolite, the signal from the other is too weak to interfere Suppose each pseudolite is set to achieve a received signal level of 126 dBm at a maximum service radius of 50 km and that an undesired pseudolite signal must be at least 14 dB below the desired signal to avoid interference A simple calculation.

COMPUTING THE VALUE AND COST OF A FLEXIBLE CAPITAL STRUCTURE Even if your company is operating at its optimal capital structure, it may be losing value. How much value A newly developed model can help you calculate it. The Premise Under the prevailing theory, a company s value will be maximized when it operates at its optimal capital structure. We were all taught that the optimal capital structure is the mix of debt and equity that minimizes the company s cost of capital.

class fill tests(unittest.TestCase): def test numeraire rebased bond(self): env = ppf.market.environment() times = numpy.linspace(0, 2, 5) factors = numpy.array([math.exp(-0.05*t) for t in times]) env.add curve("zc.disc.eur" , ppf.market.curve(times, factors, ppf.math.interpolation. loglinear)) expiries, tenors = [0.1, 0.5, 1.0, 1.5, 2.0, 3.0, 4.0, 5.0], [0, 90] env.add surface("ve.term.eur.hw" , ppf.market.surface(expiries, tenors, numpy.zeros ((8, 2)))) env.add constant("cv.mr.eur.hw", 0.0) r = ppf.model.hull white.requestor() s = ppf.model.hull white.lattice.state(11, 3.5) sx = s.fill("eur", 0.25, r, env) f = ppf.model.hull white.fill(2.0) PtT = f.numeraire rebased bond(0.25, 1.5, "eur", env, r, sx) exp = \ [1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052 ,1.02531512052] assert seq close(exp, PtT)

A model for sink movement is proposed in [151], where observers (ie the sinks) move along the same path repeatedly The sensed data are collected while the observer traverses the network When passing by sensor nodes, the observer wakes them up and receives their data (if any) The authors describe a prototype system developed at Rice University where the observers are carried by campus shuttles, and the sensors are spread out throughout the university property In particular, the authors determine the transmission range needed to collect data from a prede ned percentage of the sensor nodes, given the observer speed, the time required to transmit a piece of information, and the traf c pattern The correlation among the various system parameters is investigated analytically An in-depth discussion on the advantages of incorporating controllable mobile components into the network infrastructure is presented in [153].