Bringing Nanda forward, or acting your age in The Awkward Age

Henry James’s 1899 novel, The Awkward Age posits the adolescent girl’s movement forward into the future as an acute problem for the fin-de-siècle. The novel’s titular pun equates the awkward, individual, in-between time of adolescence with the awkward, collective, in-between time of the fin-de-siècle, leading us both towards the turn-of-the-century ‘invention’ of the modern adolescent, and towards James’ exploration of the culturally constructed nature of age as an identity category. The conflation of individual ages with historical ones is significant; James’s novel appeared on the cusp of a new century, at a moment when adolescence was in the process of being consolidated as a modern identity category by medical authorities, educators, and psychologists. The novel’s deploying of technologies such as the telegraph and the photograph, that mediate presence, speed time up, slow it down, and freeze it, posits the adolescent girl as cognate with modernity; both of her time and ahead of it. In the novel, adolescence is an awkward, unnerving presence, and a significant absence: an identity in the process of being formulated, and an age category to come. In this article I explore the ways in which the rhetoric of modernity that resonates throughout the book relates to the awkward age of the adolescent. If we refocus our attention on age in The Awkward Age, we can begin to see the ways in which age itself becomes a creation of James’s, a staging of possible relations (sexual, conversational, economic, theatrical, performative, even utopian-collective) between older and younger interlocutors who swing between being ‘adults’ and ‘children,’ with the fin-de-siècle invention of the adolescent as a hinge for this process

Deep Underground Science and Engineering Laboratory - Preliminary Design Report

The DUSEL Project has produced the Preliminary Design of the Deep Underground Science and Engineering Laboratory (DUSEL) at the rehabilitated former Homestake mine in South Dakota. The Facility design calls for, on the surface, two new buildings - one a visitor and education center, the other an experiment assembly hall - and multiple repurposed existing buildings. To support underground research activities, the design includes two laboratory modules and additional spaces at a level 4,850 feet underground for physics, biology, engineering, and Earth science experiments. On the same level, the design includes a Department of Energy-shepherded Large Cavity supporting the Long Baseline Neutrino Experiment. At the 7,400-feet level, the design incorporates one laboratory module and additional spaces for physics and Earth science efforts. With input from some 25 science and engineering collaborations, the Project has designed critical experimental space and infrastructure needs, including space for a suite of multidisciplinary experiments in a laboratory whose projected life span is at least 30 years. From these experiments, a critical suite of experiments is outlined, whose construction will be funded along with the facility. The Facility design permits expansion and evolution, as may be driven by future science requirements, and enables participation by other agencies. The design leverages South Dakota's substantial investment in facility infrastructure, risk retirement, and operation of its Sanford Laboratory at Homestake. The Project is planning education and outreach programs, and has initiated efforts to establish regional partnerships with underserved populations - regional American Indian and rural populations

Calibration of muon reconstruction algorithms using an external muon tracking system at the Sudbury Neutrino Observatory

To help constrain the algorithms used in reconstructing high-energy muon events incident on the Sudbury Neutrino Observatory (SNO), a muon tracking system was installed. The system consisted of four planes of wire chambers, which were triggered by scintillator panels. The system was integrated with SNO's main data acquisition system and took data for a total of 95 live days. Using cosmic-ray events reconstructed in both the wire chambers and in SNO's water Cherenkov detector, the external muon tracking system was able to constrain the uncertainty on the muon direction to better than 0.6°

Biopharmaceutics Classification System: The Scientific Basis for Biowaiver Extensions

Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/41492/1/11095_2004_Article_375175.pd

Constraints on the χ_(c1) versus χ_(c2) polarizations in proton-proton collisions at √s = 8 TeV

The polarizations of promptly produced χ_(c1) and χ_(c2) mesons are studied using data collected by the CMS experiment at the LHC, in proton-proton collisions at √s=8  TeV. The χ_c states are reconstructed via their radiative decays χ_c → J/ψγ, with the photons being measured through conversions to e⁺e⁻, which allows the two states to be well resolved. The polarizations are measured in the helicity frame, through the analysis of the χ_(c2) to χ_(c1) yield ratio as a function of the polar or azimuthal angle of the positive muon emitted in the J/ψ → μ⁺μ⁻ decay, in three bins of J/ψ transverse momentum. While no differences are seen between the two states in terms of azimuthal decay angle distributions, they are observed to have significantly different polar anisotropies. The measurement favors a scenario where at least one of the two states is strongly polarized along the helicity quantization axis, in agreement with nonrelativistic quantum chromodynamics predictions. This is the first measurement of significantly polarized quarkonia produced at high transverse momentum