Sean Fleming, AIP Conference Proceedings842,923–928(2006); submitted30January2006, based on a PANIC05 talk. Abstract describes the formalism and applications to color-suppressed B-to-D decays and the Upsilon radiative spectrum.

By Christian W. Bauer, Sean Fleming, Dan Pirjol and Iain W. Stewart. First preprint28November2000, Phys. Rev. D63,114020(2001). Abstract: energetic-quark theory with collinear/soft gluons, scales of transverse momentum and its square divided by the hard energy; current matching and renormalization-group evolution.

Official laboratory decay-data evaluation, page1:100% beta-minus decay to stable chlorine-35, half-life87.25(15)days. Version footer11July1998–21February2012. This specific evaluation is cited; no claim it is the newest evaluation worldwide, and no production or handling instructions used.

Official laboratory decay-data evaluation, page1:100% beta-minus decay to sulfur-32, half-life14.273(7)days. Version footer19February–27March2026. The record is an evaluated data sheet, not one new raw experiment; no production or handling instructions used.

Manufacturer primary technical account, title on p.1; pp.1–2, cryogenic detector and charge-sensitive front end; p.2 Table1 gives mean2.96eV per electron-hole pair at77K. No date inferred from PDF filename or crawl date, and no bias-voltage instructions reproduced.

Physical Review Letters93,130501(2004), DOI10.1103/PhysRevLett.93.130501. Primary author preprint, first-author byline F. Jelezko retained as printed. Pages2–3 and Figure1: substitutional nitrogen next to a vacancy and electron/nuclear spin system; Figure2: laser, microwave and radio-frequency manipulation/readout; Abstract: coherent nuclear-spin oscillation and conditional two-qubit gate. arxiv.org/pdf/quant-ph/0402087 . No guessed first-author full identity.

The official Ulm CV names Fedor Jelezko and lists this exact paper title and DOI on its second page, corroborating the expanded author identity.

Institutional technical explanation: Typical Boiling-Water Reactor, core boiling, moisture separation, direct steam turbine and condensate/feedwater path.

Original paper: agupubs.onlinelibrary.wiley.com/doi/full/10.1002/2014JA020353 . Journal of Geophysical Research: Space Physics119,7074–7087. DOI:10.1002/2014JA020353 . Byline verifies Peter H. Yoon. Cited introduction and distribution conventions: suprathermal tails, empirical kappa distributions and distinction between a speed parameter and kinetic temperature. The moment-convergence check in the wiki is an independent power-counting calculation.

Primary paper: arxiv.org/abs/2011.10928 . doi.org/10.1126/sciadv.abg2879 . Science Advances7,eabg2879(2021); preprint2020. Original full byline at archive: Yair Margalit and10coauthors. Cited abstract and experimental description: atom-chip magnetic gradients, spin-dependent splitting and coherent full-loop recombination. No claim of the original macroscopic-magnet scheme having been realized is made.

Primary publication record: inspirehep.net/literature/12266 . Annals of Physics144,249–281. Author identities and publication verified from record. Scalar stability result is cited with stated AdS dimension/radius conventions; the indicial equation in the concept article is an independent elementary calculation. No inaccessible numbered locator is claimed.

Primary author text: arxiv.org/pdf/0804.2981 . Archive: arxiv.org/abs/0804.2981 . Title page identifies Matteo G. A. Paris. Cited passage: Section 2, symmetric logarithmic derivative, quantum Fisher information and single-parameter quantum Cramér-Rao bound. The arXiv submission is 2008, journal publication 2009; the PDF typesetting date is not a new publication date.

Astronomy & Astrophysics 522, A25. Section 2 defines electron mole number using net electron density, then gives charge neutrality and baryon-number conservation in equations 7–8. arXiv:1002.3854 is also available.

By Michael Dance, Ethan Palay, Sultana N. Nahar and Anil K. Pradhan. Monthly Notices of the Royal Astronomical Society 435(2), 1576–1581; published online 26 August 2013.

Cited passages: section 2.3, equations (3)–(4), Maxwellian effective collision strength and excitation coefficient; section 3.1, low-energy resonance structure and its effect on thermal rates. The published title encloses Ne V in square brackets to denote forbidden lines.

CHIANTI Technical Report No. 13, version 2.0, 25 September 2020. By Peter Young.

Cited passage: PDF p. 2, introductory definition of effective collision strengths as collision strengths integrated over a Maxwellian electron distribution, depending on temperature.

Original construction of smooth magnetic monopoles in broken non-Abelian gauge theories. Section 2, equations (2.4)–(2.5), gives gauge/scalar masses; section 3, equation (3.3), printed p. 282, relates the classical monopole energy to the vector-boson scale. Already existing person and Work by Gerardus 't Hooft reused.

Verified Pages 2–3: initially uncorrelated probes, local mediation and incompatible mediator observables.

Verified Figure 1 and equations (1)–(3), pp. 1–3: spatial phases and spin-interferometer witness.

Journal of Physics A: Mathematical and Theoretical 57, 115301. By Yikang Zhang and Thomas Barthel.

Verified version 4, section 2, Theorem 2.2: scalar commutant implies uniqueness when a faithful stationary state exists. Section 2 explains why that hypothesis matters.