Hubbry Logo
Sidney DrellSidney DrellMain
Open search
Sidney Drell
Community hub
Sidney Drell
logo
8 pages, 0 posts
0 subscribers
Be the first to start a discussion here.
Be the first to start a discussion here.
Sidney Drell
Sidney Drell
Sidney Drell
View on Wikipedia
from Wikipedia

Sidney David Drell (September 13, 1926 – December 21, 2016) was an American theoretical physicist[2] and arms control expert.[3]

Key Information

At the time of his death, he was professor emeritus at the Stanford Linear Accelerator Center (SLAC) and senior fellow at Stanford University's Hoover Institution. Drell was a noted contributor in the fields of quantum electrodynamics and high-energy particle physics. The Drell–Yan process, which was used to discover the Higgs boson, is partially named for him.[2]

Biography

[edit]

Born in Atlantic City, New Jersey on September 13, 1926,[2] Drell graduated from Atlantic City High School in 1943, at the age of sixteen.[4][5]

Drell entered Princeton for the summer term in July 1943, and worked with Josef-Maria Jauch in his junior year and completing his senior thesis "Radiating Electrons" with John Archibald Wheeler.[2] He earned his undergraduate degree in physics from Princeton University in 1946.[4] He was awarded a masters in physics in 1947 and received his PhD from the University of Illinois at Urbana–Champaign in 1949. He co-authored the textbooks Relativistic Quantum Mechanics and Relativistic Quantum Fields with James Bjorken.[2]

Drell was active as a scientific advisor to the U.S. government, and was a founding member of the JASON Defense Advisory Group.[2] He was also on the board of directors of Los Alamos National Security, the company that operates the Los Alamos National Laboratory.[6] He was an expert in the field of nuclear arms control and cofounder of the Center for International Security and Arms Control, now the Center for International Security and Cooperation. He was a Senior Fellow at Stanford's Hoover Institution and a trustee Emeritus at the Institute for Advanced Study in Princeton, New Jersey.[7]

He was the father of Persis Drell, former head of SLAC national accelerator lab, former dean of the Stanford University School of Engineering, and (through Fall 2023) provost of Stanford University; Joanna Drell, Professor of History and chair of the Department of History at the University of Richmond;[8] and Daniel Drell, a program officer at the U.S. Department of Energy. Sidney Drell died in December 2016 at his home in Palo Alto, California at the age of 90.[3]

Awards and honors

[edit]

References

[edit]
[edit]
Revisions and contributorsEdit on WikipediaRead on Wikipedia

Sidney Drell

View on Grokipedia
from Grokipedia
Sidney David Drell (September 13, 1926 – December 21, 2016) was an American theoretical physicist renowned for contributions to quantum field theory and an arms control advisor who influenced U.S. national security policy. Born in Atlantic City, New Jersey, Drell graduated with a bachelor's degree from Princeton University before earning his PhD in theoretical physics from the University of Illinois in 1949. He joined the Stanford University faculty in 1956, where he advanced research in high-energy physics and served as deputy director of the SLAC National Accelerator Laboratory from 1963 to 1969. Drell's scientific work focused on quantum electrodynamics and quantum chromodynamics, earning him recognition for applying fundamental physics to complex problems in particle interactions. Beyond academia, Drell advised U.S. presidents from Eisenhower to Obama on technical aspects of defense and , serving on congressional panels and contributing to efforts in nuclear nonproliferation and strategic stability. His policy engagements emphasized rigorous scientific analysis over ideological approaches, bridging with practical challenges. For his dual impacts in science and policy, Drell received the in 2011 and the in 2000.

Early Life and Education

Family Background and Childhood

Sidney David Drell was born on September 13, 1926, in , to parents who had immigrated from the as Jews seeking better opportunities in the United States. His father, Tully Drell, owned and operated a in Atlantic City, providing a modest but stable livelihood during the economic hardships of the that began when Drell was three years old. His mother, Rose (née White) Drell, had worked as a schoolteacher before her marriage and emphasized the importance of education and reading in the household, creating an environment that encouraged intellectual pursuits without evident emphasis on political ideologies. The Drell family's immigrant heritage and focus on shaped Drell's early years amid the boardwalk town's seasonal economy and broader national austerity. Drell attended local public schools, demonstrating consistent academic aptitude rather than legendary precocity, and graduated from in 1943 at age sixteen, having particularly distinguished himself in and Latin. This steady performance reflected the practical values instilled by his parents, who prioritized formal learning and personal discipline over anecdotal tales of youthful invention.

Academic Training and Early Influences

Drell completed his in 1943 and enrolled at that summer, benefiting from an accelerated wartime program. He earned a B.A. in physics in 1946, during which he wrote a senior thesis titled "Radiating Electrons" under the supervision of , exploring propagating action-at-a-distance formulations in electron dynamics. Wheeler's mentorship emphasized foundational principles in , fostering Drell's commitment to rigorous, derivation-based approaches free from extraneous assumptions. Pursuing graduate studies at the University of Illinois at Urbana-Champaign, Drell obtained an M.S. in physics in 1947 and a Ph.D. in 1949, with serving as his . His training there centered on core elements of and nascent developments in , building technical proficiency in relativistic frameworks without reliance on interpretive narratives. This period solidified his expertise in foundational quantum theory, influenced by Dancoff's work on many-body problems and early QED techniques. Key early influences included Wheeler's insistence on deriving physical laws from basic postulates and subsequent exposure to mentors like , who reinforced empirical grounding in field theory. These experiences shaped Drell's preference for precise, mathematically stringent methods over approximations, evident in his initial forays into relativistic quantum problems during graduate work.

Scientific Career and Contributions

Theoretical Work in Quantum Field Theory

Sidney Drell's theoretical contributions to in the 1950s and 1960s centered on (QED) and its extensions to hadron physics, emphasizing propagator-based methods for deriving particle interaction amplitudes. His approach prioritized explicit calculations of processes using Feynman diagrams, ensuring consistency with Lorentz invariance and empirical data from accelerators, such as electron-positron cross-sections. These efforts built on post-World War II advancements in , where Drell applied systematic counterterm subtractions to eliminate ultraviolet divergences while maintaining the theory's predictive power for observable quantities. In 1964, Drell co-authored Relativistic Quantum Mechanics with James D. Bjorken, establishing a canonical framework for via theory. The text derives propagators for Dirac fermions, photons, and scalar mesons, enabling perturbative expansions for processes like and , with explicit formulas for vertex functions and self-energies. It proves the finiteness of renormalized QED perturbatively to all orders by demonstrating that counterterms absorb infinities without altering low-energy physical parameters, such as the , which matched precision measurements to parts per thousand. This work underscored renormalization's role in resolving infinities through causal, gauge-invariant procedures rather than cutoffs lacking empirical support. Drell further advanced hadron physics by integrating dispersion relations with field-theoretic amplitudes, relating real and imaginary parts of forward via analyticity principles derived from . In his 1961 monograph Electromagnetic Structure of Nucleons, he computed form factors using dispersion techniques, predicting their asymptotic behavior from Regge pole contributions and validating against early data. This linked current operator matrix elements to measurable electromagnetic radii and magnetic moments, providing a bridge between QED successes and strong-interaction phenomenology without invoking untested symmetries. Such methods critiqued purely axiomatic field theories by demanding direct ties to dispersion-summed observables, influencing subsequent validations in pion- .

Development of the Drell-Yan Process

The Drell-Yan mechanism, proposed by Sidney D. Drell and Tung-Mow Yan in 1970, describes the production of high-mass pairs in high-energy hadron-hadron collisions through the of a constituent from one hadron and an antiquark from the other into a (or, at higher energies, a Z boson), which subsequently decays into a dilepton pair. This process derives from the quark-parton model, treating and antiquarks as quasi-free partons within , with the cross-section calculable in leading order using perturbative (QCD) and parton distribution functions. Unlike earlier interpretations relying on assumptions, such as vector meson dominance or multi-pion exchange, the mechanism avoids such constructs by directly linking dilepton production to electromagnetic interactions scaled by the strong . The proposal specifically addressed anomalous high-mass dimuon events observed in proton-proton collisions at the Intersecting Storage Rings (ISR), where experiments reported continuum dimuon yields extending to invariant masses above 3 GeV/c², incompatible with known hadronic decays. Drell and Yan's framework predicted a differential cross-section proportional to the product of and antiquark distribution functions, yielding testable signatures including a characteristic 1/s dependence at high center-of-mass energies and suppression of high-mass pairs relative to lower-mass continua. This grounded the explanation in empirical parton densities inferred from deep-inelastic scattering data, emphasizing calculable perturbative contributions over speculative non-perturbative effects. Experimental validation followed at , where fixed-target proton-nucleon collisions in the mid-1970s measured dilepton cross-sections aligning with Drell-Yan predictions within factors of 2-3, after accounting for higher-order QCD corrections and sea-quark contributions. The mechanism's falsifiable predictions on distributions—peaked near zero for symmetric collisions and broader for beam asymmetries—distinguished it from alternatives like decay models, which failed to reproduce observed angular correlations and mass spectra. Subsequent refinements incorporated nuclear shadowing and transverse momentum effects, but the core quark-antiquark annihilation paradigm persisted, validated by integrated luminosities exceeding 10^10 nb⁻¹ in early runs.

Role at SLAC and Deep Inelastic Scattering

Drell joined the Stanford Linear Accelerator Center (SLAC) in its formative years, establishing and leading its theory group to support experimental investigations into structure via high-energy . From the early 1960s, he directed theoretical efforts that anticipated key features of (DIS) data, deriving scaling behaviors for structure functions within canonical frameworks. These calculations posited that, in the Bjorken limit of high momentum transfer Q2Q^2 and fixed x=Q2/(2Mν)x = Q^2 / (2 M \nu) (where MM is mass and ν\nu is energy transfer), the dimensionless structure functions F2(x)F_2(x) and F1(x)F_1(x) would exhibit scaling, independent of separate Q2Q^2 and ν\nu dependencies. Collaborating with Tung-Mow Yan and others, Drell formalized the parton model for DIS, interpreting virtual photon absorption by point-like, quasi-free constituents inside the nucleon, akin to Richard Feynman's intuitive picture but grounded in operator product expansions and light-cone dominance. This approach predicted cross-sections scaling as σ∼F(x)/Q2\sigma \sim F(x)/Q^2, with F(x)F(x) reflecting the momentum distribution of these constituents, directly testable against SLAC's Mark I and Mark II spectrometers. The model's emphasis on empirical point-like behavior over diffuse, strongly interacting clouds aligned with data showing rapid growth in inelastic cross-sections at Q2>1Q^2 > 1 GeV², challenging pre-DIS models reliant on pomeron exchanges or vector meson dominance. SLAC-MIT experiments, led by Jerome I. Friedman, Henry W. Kendall, and Richard E. Taylor from 1967 to 1973, confirmed these scaling predictions to within 10-20% accuracy across Q2Q^2 from 1 to 25 GeV² and xx from 0.1 to 0.8, using hydrogen and deuterium targets to map proton and neutron structures. Drell's group critiqued competing interpretations—such as diffractive Regge-pole models or isobar excitations—that underpredicted the flat F2(x)F_2(x) plateaus at low xx and lacked quantitative fits to measured virtual photon absorption rates, insisting instead on models verifiable via precise differential cross-sections d2σ/dxdQ2d^2\sigma / dx dQ^2. This rigorous alignment of theory with SLAC's high-luminosity data (exceeding 10^34 cm^{-2} s^{-1} effective) underscored quarks as spin-1/2, fractionally charged partons, paving the way for quantum chromodynamics while highlighting the superiority of data-driven, point-like constituent pictures. Friedman, Kendall, and Taylor received the 1990 Nobel Prize in Physics for these experimental validations.

Leadership and Institutional Roles

Directorship at SLAC

Sidney Drell served as deputy director of the Stanford Linear Accelerator Center (SLAC) from 1969 to 1998, a role in which he led the laboratory's theory group for three decades and bridged with experimental operations. During this period, particularly from 1984 to 1990 under director , Drell contributed to administrative oversight of accelerator facilities amid tightening federal budgets for high-energy physics, prioritizing efficient resource allocation for data-intensive experiments over exploratory ventures. In managing SLAC's integration of theory and experiment, Drell emphasized practical outputs, such as enhanced publication rates and grant funding tied to verifiable experimental results from colliders like the Positron-Electron Project (PEP), which operated from 1980 to 1990 and probed electron-positron interactions at energies up to 29 GeV. His fostered across divergent teams, smoothing operational challenges in accelerator upgrades and maintenance, including refinements to the storage ring that supported ongoing runs despite fiscal pressures from declining U.S. Department of Energy allocations in the late 1980s. Drell's theoretical guidance bolstered SLAC's experimental successes without encroaching on hands-on credit; for example, his group's models informed the 1974 confirmation of the J/ψ particle on , which evidenced the charm quark and elevated SLAC's global standing in validation, yielding over 100 related publications in the ensuing years. This approach ensured sustained funding and productivity, with SLAC producing key data sets that advanced analyses during PEP's tenure.

Advisory Positions in Physics Community

Drell chaired the High Energy Physics Advisory Panel (HEPAP) of the U.S. Department of Energy from 1974 to 1985, having served as a member from 1974 to 1982, providing guidance on national priorities for research and resource allocation. In this role, he emphasized recommendations grounded in assessments of scientific output, such as experiment viability and potential for breakthroughs in fundamental particle interactions. In 1994, Drell chaired the HEPAP Subpanel on the Vision for the Future of High-Energy Physics, issuing the "Drell Report" that advocated a targeted augmentation—the "Drell Bump"—of $50 million annually for three years to bolster U.S. competitiveness without diluting existing programs. The subpanel's analysis prioritized investments in facilities demonstrating strong empirical returns, like upgraded accelerators yielding measurable advances in cross-section data and properties, while cautioning against across-the-board reductions that could stifle progress; absent the funding increase, it proposed selective closure of lower-impact laboratories to concentrate resources. This approach drew on quantitative evaluations of program efficiencies, including correlations between funding levels and publication impacts in high-energy theory. Drell also led a HEPAP subpanel assessing U.S. engagement in the (LHC) project, endorsing participation through contributions to detector technologies and data analysis frameworks aligned with verifiable experimental standards, rather than allocations driven by non-scientific criteria. These efforts underscored his push for transnational partnerships predicated on mutual adherence to reproducible results in and electroweak unification probes. From 1975 to 1991, Drell participated in the DOE's Energy Research Advisory Board, offering input on programs by highlighting disparities in support relative to citation metrics and contributions to Nobel-recognized advancements, such as validations. His critiques focused on reallocating resources to underrepresented areas like perturbative QCD computations, backed by evidence of their role in predicting outcomes.

National Security Involvement

Classified Work and Reconnaissance Technology

In the early 1960s, Drell contributed to the Corona reconnaissance satellite program by leading efforts to resolve streaking artifacts in photographic imagery, attributing the issue to electrostatic charging and corona discharge within the satellite systems. Drawing on his expertise in quantum electrodynamics and plasma physics, he assembled a team of physicists to develop error-correction models that improved image clarity, enabling more reliable overhead surveillance of Soviet missile sites and military infrastructure during the height of the Cold War. These fixes were critical for the program's success, as Corona's film-return capsules provided the first empirical photographic evidence of Soviet capabilities, yielding over 800,000 images from 1960 to 1972 that informed U.S. strategic assessments. Drell's work extended to the President's Science Advisory Committee (PSAC) Land Panel, chaired by Edwin Land from 1963 to 1971, where he chaired a subcommittee that evaluated and selected key programs, including the advancement of Corona (Program B) into more sophisticated electro-optical imaging systems. The panel's recommendations were instrumental in formalizing the (NRO) as a dedicated entity in 1961, streamlining the integration of physics-driven technologies for -based intelligence collection. Through , the advisory group he joined in 1960, Drell also analyzed the effects of high-altitude nuclear explosions on sensors, modeling electromagnetic disruptions to ensure reliability amid potential adversarial EMP threats. These contributions enhanced real-time threat monitoring and verification capabilities, providing policymakers with data-driven insights into adversary deployments that underpinned credible deterrence strategies. In 2000, the NRO honored Drell as one of ten founders of national reconnaissance as a distinct space-based discipline, recognizing his role in transitioning from experimental film recovery to operational systems that prioritized empirical validation over speculative assessments.

Arms Control Verification and Treaty Support

Drell contributed to the verification regime of the Strategic Arms Limitation Talks (SALT) treaties in the 1970s through his work with the JASON advisory group, focusing on national technical means such as satellite reconnaissance and seismic monitoring to assess compliance with limits on missile deployments and anti-ballistic missile systems. He emphasized that the Anti-Ballistic Missile (ABM) Treaty of SALT I (1972) was verifiable using existing technologies, including satellite imagery to monitor interceptor missile sites and quantify detection thresholds for potential Soviet violations, thereby reducing reliance on unverified diplomatic assurances. This approach highlighted causal mechanisms where empirical data on sensor capabilities—such as resolution limits and false-negative risks—enabled enforceable constraints without on-site access. In advising on the Intermediate-Range Nuclear Forces (INF) Treaty of 1987, Drell supported the integration of on-site inspections with to verify the elimination of intermediate-range missiles, stressing that technical protocols must account for hiding strategies and provide quantifiable confidence levels in compliance data. He endorsed the treaty's verification provisions as robust, drawing on analyses that linked inspection regimes to reduced breakout risks, where physical tags, , and site visits formed interlocking checks against evasion. For the (CTBT), Drell advocated verification feasibility by quantifying seismic detection thresholds for low-yield underground explosions, critiquing proposals that downplayed false-positive rates from natural events in favor of overly optimistic diplomatic frameworks. Through and congressional testimony, he underscored the International Monitoring System's empirical capabilities—integrating seismic, hydroacoustic, and sensors—to achieve detection limits below 1 kiloton with high confidence, prioritizing data-driven assessments over assumptions of to mitigate cheating incentives.

Advocacy for Nuclear Deterrence and Reductions

Drell advocated for robust nuclear deterrence during the , embracing the doctrine of (MAD) as a pragmatic reality that empirically prevented hot war between the superpowers despite their mutual vulnerabilities and the Soviet Union's expansionist aims. He emphasized maintaining U.S. nuclear superiority through reliable stockpiles and technical safeguards, providing classified advice to ensure weapon safety, performance, and delivery systems amid escalating arsenals that reached over 30,000 warheads by the 1980s. This stance reflected a realist assessment that deterrence's stability hinged on credible second-strike capabilities, not moral qualms about possession, even as he critiqued overly aggressive doctrines like first-use options. Post-Cold War, Drell shifted toward advocating verifiable reductions while preserving deterrence, co-organizing the 2007 Hoover Institution conference with that inspired Wall Street Journal op-eds by Shultz, Kissinger, Perry, and Nunn envisioning a nuclear-free world via phased, multilateral steps such as securing global fissile materials, ratifying the Comprehensive Test Ban Treaty, and halving deployed warheads to 1,000 per side. These efforts grounded in technical feasibility, prioritizing intermediate goals like missiles to reduce accidental launch risks, but Drell insisted U.S. leadership required sustained superiority until adversaries reciprocated. To support post-1992 testing bans, Drell championed the science-based Stockpile Stewardship Program, launched in 1994 with annual assessments using supercomputers, hydrodynamic tests, and subcritical experiments to certify reliability without full-yield detonations, reporting heightened confidence in the aging arsenal's 100% readiness by 1999. Critics, including strategic analysts, contended this approach risked gradual erosion of deterrence against non-state actors or irrational regimes, as simulations could not fully replicate live tests' physics, potentially inviting cheating in verification-poor environments. Drell's bridging of physics and policy earned praise for technical rigor in , yet hawkish observers faulted his later push for downplaying causal incentives for adversaries to retain asymmetries, as Russia's violations of the 2010 Treaty—deploying over 1,500 warheads beyond limits by 2023—illustrated how unilateral U.S. cuts could embolden revisionist powers absent ironclad enforcement. This tension underscored deterrence's empirical track record over aspirational zero, where reductions demanded reciprocal compliance to avoid incentivizing aggression.

Awards and Honors

Scientific and Technical Recognitions

Drell received the Ernest Orlando Lawrence Memorial Award in 1972 from the U.S. Atomic Energy Commission (predecessor to the Department of Energy) for his pioneering research in , including developments in that yielded predictions corroborated by electron-positron scattering experiments. This recognition highlighted the empirical rigor of his techniques, which bridged analytic properties of scattering amplitudes with observable cross-sections. In 1998, he was awarded the Pomeranchuk Prize by the Institute for Theoretical and Experimental Physics in for outstanding contributions to elementary particle physics, specifically his role in formulating perturbative expansions in that accurately described high-energy quark-gluon interactions observed in collider data. The , presented in 2000 by the U.S. Department of Energy, honored Drell's lifetime advancements in , including applications to at SLAC that predicted scaling behaviors later confirmed by precision measurements of structure functions. These insights demonstrated the causal mechanisms underlying partonic descriptions of hadrons, privileging calculable predictions over phenomenological fits. Drell earned the in 2011, awarded by the and presented by President Obama in 2013, for foundational work in and , enabling quantitative matches between theory and experimental results from particle accelerators on processes like heavy production. The medal underscored the verifiable predictive power of his formalisms in resolving ultraviolet divergences and asymptotic freedoms, core to modern validations.

Policy and Public Service Awards

Drell received the Heinz Award in in 2005 for his longstanding technical contributions to , including verification technologies that supported verifiable reductions in nuclear arsenals while preserving credible deterrence capabilities. This recognition highlighted his role in applying physics expertise to policy challenges, such as developing reconnaissance systems essential for monitoring compliance with treaties like the Strategic Arms Reduction Treaty (START), without undermining U.S. strategic advantages. As a senior fellow at Stanford's from the early 2000s until his death, Drell conducted policy analysis focused on realism, advocating for dual-use technologies in gathering and arms verification that balanced with strategic restraint. His affiliation there facilitated interdisciplinary work on nuclear nonproliferation, emphasizing empirical assessments of threats over ideological , which contrasted with more unilateral hawkish or dovish positions in contemporary debates. In 2012, the awarded Drell its Public Service Award for pioneering efforts in bridging scientific analysis with policy, particularly through advisory roles in groups like that informed verifiable treaty implementations. These honors underscored his influence in promoting technically grounded approaches to security dilemmas, though some conservative analysts critiqued engagements as potentially rewarding overly conciliatory stances toward adversaries, despite Drell's consistent emphasis on maintaining U.S. superiority.

Personal Life and Legacy

Family and Personal Philosophy

Sidney Drell married Harriet Stainback in 1952, a union that lasted 64 years until his death. The couple had three children: a son, Daniel (born 1953), and two daughters, Persis—a physicist who followed her father into academia at Stanford—and Joanna. The family settled in Palo Alto, California, in close proximity to Stanford University, where Drell purchased a home in 1956 and led a low-key personal life amid his high-profile professional engagements in physics and national security. Drell's parents were Jewish immigrants from the , instilling in him an ethical framework rooted in Jewish heritage that he harmonized with scientific rationalism throughout his career. This synthesis informed his worldview, emphasizing empirical evidence and first-principles analysis in addressing moral and technical dilemmas, particularly in and deterrence. He championed truth-seeking and truth-telling as foundational to and societal discourse, warning against distortions that undermine rational policy-making. Drell's approach rejected ideological overrides of data, favoring direct engagement with primary evidence over secondary interpretations or politicized narratives in both scientific and public arenas.

Death and Enduring Impact

Sidney Drell died on December 21, 2016, at his home in , at the age of 90, due to complications from . No public record exists of dramatic final statements or pronouncements from Drell in his last days. In , Drell's co-development of the Drell-Yan process in 1969 provided a foundational framework for understanding quark-antiquark annihilation into lepton pairs, which remains integral to analyses at the (LHC). Ongoing LHC experiments, such as those measuring differential cross sections in proton-proton collisions at 13 TeV, continue to rely on Drell-Yan predictions for electroweak precision tests, parton distribution function extractions, and background modeling in Higgs and beyond-Standard-Model searches, demonstrating its causal persistence in high-energy data interpretation without replacement by alternative mechanisms. Drell's policy legacy emphasized verifiable arms reductions to bolster nuclear deterrence, influencing U.S. government panels on compliance technologies, including seismic monitoring and satellite reconnaissance, though empirical challenges in enforcement—such as Iran's persistent non-compliance under the despite inspections—highlighted limitations in realizing full absent robust, adversarial-resistant verification. As an emeritus senior fellow at the , his data-driven realism on arsenal necessities informed conservative analyses countering absolutist anti-nuclear positions, contributing to initiatives like George Shultz's nuclear risk reduction efforts while prioritizing deterrence stability over optimistic unilateral cuts.

References

  1. https://news.stanford.edu/stories/2016/12/sidney-drell-theoretical-physicist-national-security-expert-stanford-dies-90
  2. https://www6.slac.stanford.edu/about/our-people/sidney-d-drell
  3. https://paw.princeton.edu/memorial/sidney-drell-47
  4. https://www.armscontrol.org/act/2017-01/arms-control-today/memoriam-sidney-d-drell-1926-2016
  5. https://www.llnl.gov/article/38776/drell-named-winner-national-medal-science
  6. https://physicstoday.aip.org/obituaries/sidney-david-drell
  7. https://www.hoover.org/profiles/sidney-d-drell
  8. https://science.osti.gov/fermi/Award-Laureates/2000s/drell
  9. https://www.hoover.org/research/sidney-d-drell-heart-matter-passionately
  10. https://www.nytimes.com/2016/12/22/science/sidney-drell-dead.html
  11. https://cisac.fsi.stanford.edu/news/legacy-sidney-drell
  12. http://biographicalmemoirs.org/pdfs/drell-sidney.pdf
  13. https://www.washingtonpost.com/national/sidney-drell-physicist-and-arms-control-expert-dies-at-90/2016/12/24/ff387910-c923-11e6-bf4b-2c064d32a4bf_story.html
  14. https://www.annualreviews.org/doi/pdf/10.1146/annurev-nucl-020619-120837
  15. https://grainger.illinois.edu/alumni/hall-of-fame/sidney-drell
  16. https://pubs.aip.org/physicstoday/article-pdf/70/9/69/10119730/69_1_online.pdf
  17. https://www.hoover.org/news/qa-scholars-talk-about-legacy-late-hoover-senior-fellow-nuclear-physicist-and-human-rights
  18. https://archive.org/details/relativisticquan0000bjor
  19. https://www.hoover.org/sites/default/files/uploads/documents/drell_sidney_cv.pdf
  20. https://link.aps.org/doi/10.1103/PhysRevLett.25.316
  21. https://inspirehep.net/files/ce4c857d3b2e3642c4ff2bde4e67c775
  22. https://cds.cern.ch/record/142791/files/CM-P00063988.pdf
  23. https://www.osti.gov/servlets/purl/944231
  24. https://indico.cern.ch/event/120851/contributions/84326/attachments/65813/94518/IWHSS_peng.pdf
  25. https://www.sciencedirect.com/science/article/pii/S0375947416000877
  26. https://www.slac.stanford.edu/pubs/slacpubs/0500/slac-pub-0685.pdf
  27. https://link.aps.org/doi/10.1103/PhysRev.187.2159
  28. https://link.aps.org/doi/10.1103/PhysRevD.1.1617
  29. https://www.slac.stanford.edu/pubs/slacpubs/0500/slac-pub-0606.pdf
  30. https://www.slac.stanford.edu/pubs/slacpubs/0500/slac-pub-0692.pdf
  31. https://history.aip.org/phn/21609005.html
  32. https://www6.slac.stanford.edu/about/our-story/history
  33. https://www.tandfonline.com/doi/full/10.1080/07341512.2018.1449711
  34. https://history.aip.org/phn/11506036.html
  35. https://history.fnal.gov/criers/FN_1998-03-06.pdf
  36. https://www.aip.org/fyi/1994/hepap-subpanel-report-vision-future-high-energy-physics
  37. https://nap.nationalacademies.org/read/6045/chapter/12
  38. https://home.cern/news/press-release/cern/lhc-world-project
  39. https://inspirehep.net/literature/374485
  40. https://www.fnal.gov/pub/ferminews/FermiNews97-08-29.pdf
  41. https://www.politico.com/magazine/story/2016/12/sidney-drell-obituary-214575
  42. https://pubs.aip.org/physicstoday/article-pdf/50/2/24/8311416/24_1_online.pdf
  43. https://www.nro.gov/Portals/65/documents/history/csnr/leaders/Founders_of_Natl_Reconnaissance.pdf
  44. https://www.jstor.org/stable/pdf/1698322.pdf
  45. https://www.heinzawards.org/pages/sidney-drell
  46. https://www.cia.gov/readingroom/docs/CIA-RDP99-00418R000100150037-6.pdf
  47. https://deepcuts.org/images/PDF/DeepCuts_WP2_Ifft.pdf
  48. https://www.armscontrol.org/act/2008-10/features/comprehensive-test-ban-treaty-effectively-verifiable
  49. https://www.nrdc.org/sites/default/files/nuc_10040801a.pdf
  50. https://www.ctbto.org/resources/information-materials/spectrum
  51. https://www.wsj.com/articles/SB116787515251566636
  52. https://media.nti.org/pdfs/NSP_op-eds_final_.pdf
  53. https://www.hoover.org/sites/default/files/uploads/documents/9780817949211_ch14.pdf
  54. https://www.globalsecurity.org/wmd/library/congress/1999_h/991007sd.pdf
  55. https://www.aps.org/publications/apsnews/200608/backpage.cfm
  56. https://science.osti.gov/lawrence/Award-Laureates
  57. https://www.nsf.gov/honorary-awards/national-medal-science/recipients/sidney-d-drell
  58. https://www.hoover.org/press-releases/hoover-appointment-sidney-drell-appointed-hoover-institution-senior-fellow
  59. http://cisac.fsi.stanford.edu/news/cofounder_drell_receives_federation_of_american_scientists_2012_public_service_award_20121109
  60. https://www.nndb.com/people/284/000106963/
  61. https://stanfordmag.org/contents/these-old-houses
  62. https://higherlogicdownload.s3.amazonaws.com/APS/a05ec1cf-2e34-4fb3-816e-ea1497930d75/UploadedImages/Newsletter_PDF/october2004.pdf
  63. https://www.everand.com/book/897408803/Sidney-D-Drell-Into-the-Heart-of-Matter-Passionately
  64. https://pubs.aip.org/physicstoday/article/70/9/69/908191
  65. https://arxiv.org/pdf/1812.10529
  66. https://fas.org/wp-content/uploads/media/Nuclear-Monitoring-and-Verification-in-the-Digital-Age.pdf
Add your contribution
Related Hubs
User Avatar
No comments yet.