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The standard electroweak theory gives an excellent account of many pieces of data over a wide range of energies. Global fits, made within the framework of the standard electroweak theory, favor a light Higgs boson, and exhibit some tension with direct searches. The LEP experiments, which focused on the ee → HZ channel, set a lower bound on the standard-model Higgs-boson mass ofMH > 114.4 GeV at 95% CL [1, 2]. The Tevatron experiments CDF and D0 also search for the standardmodel Higgs boson, examining a variety of production channels and decay modes appropriate to different Higgsboson masses. The most recent combined result exclude the range 160 GeV < MH < 170 GeV at 95% CL [3, 4]. See [5] for an overview of past searches [6]. The disjoint exclusion regions from LEP and the Tevatron make it somewhat complicated to specify the remaining mass ranges favored for the standard-model Higgs boson. A useful example is shown in Figure 1 [7]. In the Gfitter analysis, at 2σ-significance (≈ 95% CL), the

Brief comments on Higgs boson discovery potential of future Tevatron running