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Quantum leap

A quantum leap, also known as a quantum jump, is a fundamental concept in quantum mechanics referring to the abrupt transition of a quantum system—such as an electron in an atom—from one discrete energy eigenstate to another, typically involving the absorption or emission of a photon without intermediate states.^[1]^[2] First proposed by Niels Bohr in his 1913 model of the hydrogen atom and formalized in the Copenhagen interpretation in the 1920s, quantum leaps were traditionally viewed as instantaneous and random, contrasting with continuous descriptions in wave mechanics.^[1]^[3] However, a 2019 experiment using superconducting qubits demonstrated that such transitions can exhibit gradual characteristics over microseconds, allowing prediction and reversal.^[4]^[1] In popular usage, the term "quantum leap" figuratively denotes a sudden, significant advance or change, a meaning that evolved from its scientific origins and is explored in various cultural contexts.^[5]

Scientific meaning

Definition in quantum mechanics

In quantum mechanics, a quantum leap, also known as a quantum jump, refers to the abrupt transition of a quantum system—such as an electron bound in an atom—from one discrete energy state to another, traditionally described as instantaneous and without passing through any intermediate states. This process involves the absorption or emission of a photon, marking a fundamental departure from classical physics where changes occur continuously. The concept underscores the discrete nature of quantum systems, where observable properties like energy are not continuous but take on specific, quantized values.^[6] The key principle enabling quantum leaps is the quantization of energy levels in bound systems, such as atoms or molecules. Unlike classical mechanics, where an electron could orbit a nucleus at any energy, quantum mechanics restricts electrons to specific stationary states with fixed energies, as described in models like Niels Bohr's 1913 atomic theory. Transitions between these states occur abruptly upon interaction with electromagnetic radiation, conserving energy through photon exchange. This quantization prevents gradual energy changes, ensuring that systems "jump" directly between allowed levels.^[7] The energy difference between two quantized levels, denoted as \Delta E, is related to the frequency \nu of the emitted or absorbed photon by Planck's relation:

\Delta E = h \nu

where h is Planck's constant ($6.626 \times 10^{-34} J·s). This equation, introduced by Max Planck in 1900 to explain blackbody radiation, forms the basis for understanding how quantum leaps produce light of specific frequencies, leading to the characteristic spectra of elements. A prominent example occurs in the hydrogen atom, as modeled by Bohr, where electrons transition between principal energy levels labeled by quantum number n. For instance, a leap from n=3 to n=2 emits a photon in the Balmer series (visible red light at approximately 656 nm), while jumps from higher levels to n=1 produce the Lyman series in the ultraviolet. These discrete transitions explain the sharp spectral lines observed in hydrogen's emission spectrum, rather than a continuous rainbow.^[7] Observational evidence for quantum leaps comes from the discrete emission and absorption spectra of atoms, which reveal only specific wavelengths corresponding to energy differences. This was experimentally confirmed by the Franck-Hertz experiment in 1914, where electrons colliding with mercury atoms lost energy in discrete increments of about 4.9 eV, matching the atom's excitation levels and producing corresponding spectral lines upon de-excitation—direct proof of quantized transitions without intermediate states.^[8] However, advances in quantum measurement techniques have refined this picture. A 2019 experiment using superconducting qubits demonstrated that quantum jumps are not instantaneous but unfold gradually over microseconds, with observable dark states and bright states allowing the jumps to be predicted and even reversed using targeted interventions.^[4]

Historical development and examples

The concept of quantum leaps, or discrete transitions between energy levels in atoms, emerged as a foundational idea in early 20th-century physics, building on prior developments in energy quantization. In 1900, Max Planck introduced the quantization of energy to resolve the ultraviolet catastrophe in black-body radiation, proposing that energy is emitted or absorbed in discrete packets proportional to frequency, which laid the groundwork for understanding atomic transitions without continuous classical radiation.^[9] This prerequisite was extended in 1905 by Albert Einstein, who applied Planck's quanta to explain the photoelectric effect, demonstrating that light consists of discrete energy packets (photons) that induce electron transitions from bound to free states in metals, linking quantum ideas directly to atomic processes.^[10] Experimental evidence for atomic structure further informed the development of quantum leaps. In 1911, Ernest Rutherford's gold foil experiment revealed that atoms have a dense, positively charged nucleus surrounded by mostly empty space, as most alpha particles passed through thin gold foil undeflected while a small fraction scattered at large angles, challenging the plum pudding model and setting the stage for quantized orbital models.^[11] Building on this, Niels Bohr proposed his atomic model in 1913, introducing stationary electron orbits with discrete energy levels where transitions between them—termed quantum leaps—occur instantaneously, emitting or absorbing photons to explain the hydrogen spectrum's line series without the classical instability of orbiting charges.^[12] Bohr's model predicted specific spectral lines, such as the Balmer series, by quantizing angular momentum in units of Planck's constant, marking a pivotal shift toward non-classical atomic behavior.^[13] In the 1920s, Bohr and collaborators like Hendrik Kramers and John Slater refined the understanding of quantum jumps through the correspondence principle and early quantum theory, addressing issues like radiation rates during transitions and integrating classical limits for large quantum numbers, which bridged old and emerging quantum mechanics.^[14] These efforts culminated in the Bohr-Kramers-Slater theory of 1924, which posited virtual oscillators for radiation but was later superseded by matrix mechanics, solidifying quantum leaps as abrupt, probabilistic events.^[15] Later advancements highlighted quantum leaps in quantum optics. In laser operation, stimulated emission—predicted by Einstein in 1917 and realized in the 1960s—involves a photon inducing an excited atom to leap to a lower energy state, emitting an identical photon and enabling coherent light amplification, as demonstrated in the first ruby laser by Theodore Maiman in 1960.^[16] Similarly, cavity quantum electrodynamics explores controlled leaps in atoms confined in optical cavities, where strong atom-photon coupling leads to phenomena like vacuum Rabi oscillations, revealing the quantized nature of light-matter interactions.^[17] In modern contexts, quantum leaps underpin quantum computing by enabling controlled state changes in qubits, such as superconducting circuits where microwave pulses drive discrete transitions between ground and excited states, allowing information encoding and manipulation without classical decoherence pathways.^[18] This role emphasizes their enduring impact, from foundational atomic theory to scalable quantum technologies. Recent experiments, building on the 2019 observations, continue to explore the dynamics of these transitions for improved quantum error correction and sensing applications as of 2025.^[4]^[19]

Figurative meaning

Etymology and linguistic evolution

The phrase "quantum leap" originates from the scientific concept of a "quantum jump," introduced by Niels Bohr in his 1913 model of the atom, where it described the discontinuous transition of an electron between discrete energy levels, emitting or absorbing a photon in the process.^[14] This terminology contrasted sharply with classical physics' notion of gradual change, emphasizing abrupt, quantized shifts in quantum mechanics. The term "quantum jump" appeared in scientific literature as early as 1924, for instance in the Proceedings of the National Academy of Sciences, referring to specific quantum transitions.^[20] The variant "quantum leap" first emerged in 1930 within philosophical discourse, as in the Journal of Philosophy, where it denoted an arbitrary physical event akin to a fundamental shift.^[20] By the mid-20th century, the phrase began transitioning into popular science writing, particularly amid discussions of atomic energy and nuclear advancements. An early figurative use of the related "quantum jump" appeared in 1930 in the Indianapolis Star, describing sporadic forward movements in scientific progress.^[20] The first documented non-literal application of "quantum leap" to signify a major advancement occurred in 1956, in H. L. Roberts' Russia and America, which portrayed a "quantum leap" to a new order of destructive power in the context of U.S.-Soviet nuclear rivalry.^[20] This marked its entry into broader discourse on geopolitical and technological shifts, with further adoption in business contexts by the early 1960s, where it evoked sudden innovations or leaps in efficiency.^[21] The figurative sense of "quantum leap" solidified in the 1970s, as noted by the Oxford English Dictionary, amid the space race and burgeoning technology sector, symbolizing dramatic, discontinuous progress in human endeavors.^[22] Linguistically, the phrase functions as an oxymoron, juxtaposing "quantum"—implying a minimal, discrete unit—with "leap," suggesting a vast, sudden bound, which enhances its rhetorical appeal for emphasizing transformative change.^[23] This paradoxical structure contributed to its widespread metaphorical adoption, diverging from its precise physical meaning while retaining an aura of scientific authority.

Usage in science, technology, and society

In science and technology, the term "quantum leap" is frequently invoked to describe transformative breakthroughs that dramatically enhance capabilities. The invention of the transistor at Bell Laboratories in 1947, for instance, represented such a leap by replacing bulky vacuum tubes with compact semiconductor devices, paving the way for integrated circuits and the digital age.^[24] Similarly, the development of CRISPR-Cas9 gene editing in 2012 marked a quantum leap in biotechnology, enabling precise, efficient modifications to DNA that revolutionized genetic research and therapeutic applications.^[25] In societal contexts, "quantum leap" describes policy reforms aimed at advancing equity and social progress. The International Labour Organization's 2019 report, for example, called for a quantum leap in gender equality policies to close persistent gaps in employment and decent work, emphasizing the need for bold interventions to ensure women's full participation in the future of work.^[26] In business, the shift toward electric vehicles led by Tesla in the 2000s has been characterized as a quantum leap in sustainable transportation, disrupting traditional automotive paradigms and accelerating the global transition to low-emission mobility.^[27] Critics, including physicists, argue that the phrase is often misused to signify large-scale advances, whereas in quantum mechanics it denotes the smallest discrete change in an atom's energy state, such as an electron jumping between orbitals without intermediate steps.^[28] This metaphorical overextension can obscure the incremental nature of many innovations labeled as such. Post-2020 advancements in artificial intelligence, particularly large language models like those in the GPT series, have been widely described as quantum leaps in natural language processing, enabling unprecedented capabilities in text generation, comprehension, and multimodal interactions.^[29]

In arts and entertainment

Television series

Quantum Leap is an American science fiction television series created by Donald P. Bellisario that originally aired on NBC from March 26, 1989, to May 5, 1993, spanning five seasons and 97 episodes.^[30] The show stars Scott Bakula as Dr. Sam Beckett, a brilliant physicist who leads Project Quantum Leap, an experimental time-travel initiative funded by the U.S. government. In the series premiere, Beckett steps into the project's quantum accelerator to prove his theory but vanishes, becoming lost in time and involuntarily "leaping" into the bodies of other people throughout American history—typically from the 1950s to the 1990s—to assume their identities and subtly alter events for the better, guided by the famous tagline to "put right what once went wrong."^[31] His only contact with the present is Al Calavicci (Dean Stockwell), his best friend and project observer, who appears as a hologram visible only to Beckett and provides historical data via a handheld device called Ziggy, an advanced AI supercomputer.^[32] The original series drew inspiration from classic time-travel tropes seen in films like Heaven Can Wait (1978) and Here Comes Mr. Jordan (1941), reimagining them through a sci-fi lens that blended speculative physics with episodic historical dramas, often exploring social issues of the era such as civil rights, gender roles, and personal redemption.^[33] Episodes typically featured Beckett inhabiting ordinary individuals— from a Black jazz musician in 1950s Chicago to a test pilot in the 1960s—allowing the narrative to weave moral dilemmas and "what if" scenarios without overt time paradoxes, as leaps were governed by an unseen divine or cosmic force.^[34] A revival series, developed by Steven Lilien and Bryan Wynbrandt as a spiritual sequel to the original, premiered on NBC on September 19, 2022, and ran for two seasons totaling 31 episodes before its cancellation in April 2024 due to low ratings.^[35]^[36] Starring Raymond Lee as Dr. Ben Song, a physicist who relaunches the Quantum Leap project three decades after Beckett's disappearance, the reboot follows a diverse new team at the Nevada-based facility as Song leaps into various historical figures to resolve personal and global injustices, much like his predecessor.^[37] Key supporting characters include Addison Augustine (Caitlin Bassett), Song's fiancée and the new hologram guide, and Ian Wright (Mason Alexander Park), a non-binary quantum physicist who co-invented the leaping technology.^[38] The series directly addresses the original's ambiguous 1993 finale—where Beckett remained trapped in time—by incorporating elements of an unused alternate ending and exploring the emotional toll on leapers and their loved ones, while updating the format to tackle contemporary social issues like racial inequality and LGBTQ+ rights through leaps into events such as the AIDS crisis and civil rights marches.^[39] Both iterations of Quantum Leap have left a lasting cultural imprint, with the original earning 43 award nominations across various categories, including four Primetime Emmy nominations for Bakula as Outstanding Lead Actor in a Drama Series and additional nods for sound editing, cinematography, and guest acting.^[40] The show's accessible portrayal of quantum mechanics—framing time travel as a "leap" via particle accelerator—popularized pseudoscientific interpretations of quantum concepts in mainstream entertainment, influencing later sci-fi like Sliders and fostering public curiosity about real-world quantum physics despite its fictional liberties. The revival modernized this legacy with inclusive casting—highlighting Asian American and queer representation—and emphasized ethical dilemmas in AI and time manipulation, though it received mixed reviews and struggled with viewership compared to the cult classic original.^[41]

Music and albums

The soundtrack album for the original Quantum Leap television series, released in 1993 by GNP Crescendo Records, compiles key musical elements from the show. Composed primarily by Mike Post and Velton Ray Bunch, it features orchestral scores, episode-specific instrumentals, and vocal performances by lead actor Scott Bakula, including his renditions of "Somewhere in the Night," "Imagine," and "Fate's Wide Wheel." The album's 16 tracks blend synth-driven electronic motifs with rock and pop influences, underscoring the series' themes of time travel and personal redemption through dramatic sonic shifts.^[42] In hard rock and metal, Greek guitarist Gus G. (known for Ozzy Osbourne and Firewind) issued his fourth solo album, Quantum Leap, on October 8, 2021, via AFM Records. This all-instrumental release spans 11 studio tracks plus seven live bonuses, highlighting virtuoso shredding, melodic riffs, and progressive structures that represent a bold evolution in his style. Recorded amid the COVID-19 pandemic, it emphasizes technical innovation and emotional depth without vocals, earning acclaim as one of the top guitar albums of 2021 for its high-energy execution.^[43]^[44] Both the soundtrack and Gus G.'s album employ "quantum leap" to symbolize profound, instantaneous changes—whether in narrative timelines or musical technique—tying into broader motifs of sci-fi adventure and self-transformation.

Other media

The original Quantum Leap television series inspired several tie-in publications. Pocket Books published a series of 22 novelizations from 1992 to 1996, written by authors including Ashley McConnell and C.W. Rodkin, which expanded on the show's episodes with additional "leaps" and character backstories.^[45] DC Comics released a four-issue limited comic book series in 1991–1992, adapting select episodes and introducing original stories featuring Sam Beckett's time-travel adventures, illustrated by artists like Tom McKeever.) Additionally, a 1991 adventure video game developed by Scott Murphy for MS-DOS and Amiga platforms allowed players to experience a leaping scenario, solving puzzles in historical settings to "put right what once went wrong.")

Other uses

Organizations

The Quantum Leap Healthcare Collaborative is a 501(c)(3) non-profit organization founded in 2005 as a collaboration between medical researchers at the University of California, San Francisco, and other institutions, with the mission to integrate high-impact clinical research with advanced data management and systems technology to enable personalized medicine, particularly in oncology.^[46] Based in San Francisco, California, the organization focuses on accelerating the discovery and delivery of innovative therapies by bridging gaps between research, clinical care, and regulatory processes.^[47] A key initiative of the Collaborative is the I-SPY 2 TRIAL, an adaptive, multi-arm platform clinical trial launched in 2010 for patients with newly diagnosed, high-risk early-stage breast cancer, which tests novel agents in combination with standard neoadjuvant chemotherapy using pathologic complete response (pCR) as a surrogate endpoint to rapidly identify effective treatments for specific subtypes.^[48]^[49] The trial has partnered with the U.S. Food and Drug Administration (FDA) through its Complex Innovative Trial Design Pilot Program and with pharmaceutical companies including Merck, Genentech, and Pfizer to evaluate dozens of investigational drugs.^[50]^[51] Achievements include the "graduation" of 12 agents from the I-SPY 2 platform as of 2025, demonstrating predicted pCR probabilities high enough to warrant phase 3 testing, which has expedited regulatory pathways for breast cancer therapies; for instance, neratinib (Nerlynx) received FDA approval in 2017 for adjuvant use in HER2-positive breast cancer based in part on I-SPY 2 data showing strong efficacy in that subtype.^[49]^[52]^[53] Similarly, combinations like pembrolizumab plus chemotherapy graduated in 2017, contributing to subsequent approvals for neoadjuvant use in triple-negative breast cancer by 2021.^[54] The model's efficiency has reduced development timelines from years to months for promising candidates, influencing adaptive trial designs beyond breast cancer.^[55]^[56] Other organizations named Quantum Leap exist in sectors like staffing and technology incubation, often embodying the theme of rapid professional or innovative advancement, though they have more localized impact compared to the Healthcare Collaborative's global influence in clinical research.

Products and software

Quantum Leap Appraisal Software, developed by Quantum Leap Software Systems (QLSS) in the United States, is a specialized tool for professional jewelry appraisers. Founded in 1978 by Thom Underwood to transition from manual typewriter-based reports to digital formats, the software's early versions ran on DOS, with the first release in 1987 for the US and Canada markets, followed by a UK version in 2005. The initial Windows edition launched in 1993, marking its adaptation to the burgeoning personal computing era. By 2014, QLSS introduced QL2, a complete rewrite as a cloud-based, browser-accessible platform compatible with both Windows and Mac systems, featuring customizable templates such as letter, legal, and trifold formats for appraisal reports. This evolution supported unlimited items per report and streamlined workflows, reducing administrative burdens for users affiliated with organizations like the Accredited Gemologists Association and the National Association of Jewelry Appraisers.^[57]^[58] In the healthcare sector, the Quantum Leap Healthcare Collaborative offers tools and software platforms to support adaptive clinical trials and predictive modeling for drug development, particularly in oncology. Their I-SPY 2 TRIAL platform, which incorporates simulation and modeling capabilities for neoadjuvant breast cancer therapies, was operational by 2010 but saw significant expansions around 2015, including enhanced data management and predictive analytics for trial optimization. These tools enable real-time adaptive randomization and response prediction, accelerating drug approval processes by integrating biomarker data and machine learning for personalized treatment simulations. The collaborative provides operational software support, as demonstrated in studies where it facilitated design, data collection, and analysis for multi-arm trials involving agents like T-DM1 and pertuzumab.^[59]^[60] Among other products, Quantum Leap is the name of an abstract strategy board game released in 2013 by designer Cameron Browne. Published through Ludism, the game uses a hexagonal board where players position and move stones by "leaping" over opponents' pieces in a capture mechanic reminiscent of quantum superposition themes, with the objective of making the last valid move. It supports 2 players and emphasizes tactical placement and connection strategies, achieving modest commercial success with limited print runs and availability through niche retailers; it holds an average rating of 7.1 out of 10 from 19 user reviews on BoardGameGeek. A deluxe edition with expansions appeared at events like Tokyo Game Market in 2018, but no major Kickstarter campaign was associated.^[61] The development of products named Quantum Leap reflects broader trends in computing and technology. Early iterations, such as the appraisal software's 1990s Windows transition, capitalized on the personal computing boom to digitize specialized workflows. Contemporary offerings, including the healthcare collaborative's AI-enhanced trial tools and emerging platforms like those from Quantum Leap (a deep-tech firm founded in 2018 focusing on AI and AR/VR), leverage cloud computing, data analytics, and machine learning to deliver efficiency gains in professional and scientific domains.^[62]

References

[1]
Quantum Leaps, Long Assumed to Be Instantaneous, Take Time
Jun 5, 2019 · To get from wave mechanics to classical mechanics requires a quantum transition, that is, a "leap" from indefinite values to definite values.
[2]
Watching The Quantum Jump - University of Washington
Jul 12, 1996 · A quantum jump is when an electron moves between orbits, disappearing from one and appearing in another, emitting a photon. It can be seen by ...
[3]
Quantum Mechanics: Uncertainty, Complementarity, Discontinuity ...
A half-century later, the expression ``quantum leap'' has so entered our everyday vocabulary that we are likely to use it without any consciousness of its ...
[4]
https://www.nature.com/articles/s41586-019-1287-z
[5]
Quantum Jump - an overview | ScienceDirect Topics
Quantum jumps refer to the instantaneous transitions of an atom's internal state due to the absorption or emission of a light quantum, representing a ...
[6]
6.4 Bohr's Model of the Hydrogen Atom - University Physics Volume 3
Sep 29, 2016 · ... Bohr's quantum model of the hydrogen atom explains the radiation spectrum of atomic hydrogen. Historically, Bohr's model of the hydrogen atom ...
[7]
This Month in Physics History | American Physical Society
In 1914 he did his most celebrated work there on the scattering of electrons by mercury atoms. His joint papers with Gustav Hertz "entered their names on the ...
[8]
Max Planck and the birth of the quantum hypothesis - AIP Publishing
Sep 1, 2016 · One of the most interesting episodes in the history of science was Max Planck's introduction of the quantum hypothesis, at the beginning of the 20th century.II. PLANCK'S... · III. PLANCK'S APPLICATION... · IV. PLANCK'S 1931...
[9]
Quantum Milestones, 1905: Einstein and the Photoelectric Effect
Jan 22, 2025 · Einstein explained the photoelectric effect by considering light as a stream of energy quanta—which were later called photons ...Missing: transitions | Show results with:transitions
[10]
May, 1911: Rutherford and the Discovery of the Atomic Nucleus
May 1, 2006 · The experiment involved firing alpha particles from a radioactive source at a thin gold foil. Any scattered particles would hit a screen coated ...
[11]
Niels Bohr – Facts - NobelPrize.org
In 1913, Niels Bohr proposed a theory for the hydrogen atom, based on quantum theory that some physical quantities only take discrete values. Electrons move ...
[12]
Atomic flashback: A century of the Bohr model - CERN
Jul 12, 2013 · In July of 1913, Danish physicist Niels Bohr published the first of a series of three papers introducing this model of the atom, which became known simply as ...
[13]
Niels Bohr's First 1913 Paper: Still Relevant, Still ... - AIP Publishing
Nov 1, 2018 · ... historical development of quantum physics is certainly of interest. But second, it doesn't conform to the essence of what Bohr actually did.
[14]
When Bohr got it wrong: the impact of a little-known paper on the ...
Jan 28, 2025 · One hundred and one years ago, Danish physicist Niels Bohr proposed a radical theory together with two young colleagues – Hendrik Kramers and ...Missing: collaborators | Show results with:collaborators
[15]
Laser, Offspring and Powerful Enabler of Quantum Science
Mar 7, 2025 · This story started from advances in the old quantum theory, from Einstein's theoretical description of stimulated emission to O. Stern's ...
[16]
Quantum properties of light - HyperPhysics Concepts
Lasers. The stimulated emission of light is the crucial quantum process necessary for the operation of a laser.
[17]
Quantum leaps, bit by bit - Nature
Mar 23, 2017 · By contrast, a quantum computer takes the entire superposition state of all the qubits and transforms it into another superposition state ...
[18]
Quantum Leaps in Quantum Computing? | Scientific American
Dec 1, 2017 · Quantum Leaps in Quantum Computing? New “qubit” designs could enable more robust quantum machines. By Charles Q. Choi. December 2017 Issue.
[19]
Quantum Leap - Meaning & Origin Of The Phrase
A sudden, very noticable and significant advance. What's the origin of the phrase 'Quantum leap'?. Before quantum leaps there were quantum jumps, which had the ...
[20]
Quantum - Etymology, Origin & Meaning
The term quantum jump "abrupt transition from one stationary state to another" is recorded by 1954; quantum leap "sudden large advance" (1963), is often ...
[21]
The history of using 'quantum' to mean 'really big'
Aug 4, 2014 · The first use of “quantum leap” to mean “really big” was in 1956, the OED says, in a discussion of the US-Soviet balance of power in a nuclear postwar world.
[22]
Etymology of "quantum leap"
May 30, 2017 · As suggested by the following source, it refers to the connotation of quantum meaning a "sudden large increase". Quantum leap: This is a ...
[23]
Commentary: Enabling a quantum leap - Physics Today
Sep 1, 2018 · The first quantum revolution included development of quantum mechanics and invention of the transistor. The second revolution started recently ...
[24]
CRISPR-Cas9 based plant genome editing - ScienceDirect.com
Precise genome editing is a quantum leap in the field of plant sciences. Clustered regularly interspaced short palindromic repeats (CRISPR) and its ...
[25]
A quantum leap for gender equality: For a better future of work for all
Mar 7, 2019 · Report. A quantum leap for gender equality: For a better future of work for all. This report is the culmination of the extensive and often ...
[26]
Revolutionizing Auto Industry: Android OS Dominates EV Market
Jun 27, 2023 · EVs represent a quantum leap in vehicle propulsion, yet that's not the impetus for the transition. ... Tesla (TSLA), the EV industry leader.
[27]
10 Scientific Words You're Probably Using Wrong | HowStuffWorks
Mar 12, 2024 · Terms like "theory," "hypothesis" and "model" are often misused outside of their scientific contexts. ... quantum leap" beyond anything else in ...
[28]
From ChatGPT-3.5 to ChatGPT-4: A Quantum Leap in Natural ...
Mar 22, 2023 · From ChatGPT-3.5 to ChatGPT-4: A Quantum Leap in Natural Language Processing and Multimodal Capabilities ... GPT-4 garners groundbreaking growth, ...
[29]
Quantum Leap Original Series: Our Top 5 Episodes - NBC
Oct 29, 2023 · The original Quantum Leap series ran from 1989-1993, lasting five seasons and 97 episodes. RELATED: Will Ben and Sam Ever Come Home? Insider ...
[30]
Quantum Leap - ‎Apple TV
Scott Bakula ("NCIS: New Orleans," "Star Trek: Enterprise") stars as Dr. Sam Beckett, a physicist caught in a time warp, who leaps into the bodies of different ...
[31]
Quantum Leap (TV Series 1989–1993) - IMDb
Rating 8.2/10 (38,741) Quantum Leap was an innovative science fiction/fantasy show but at its heart it was also a drama of hope, second chances and change.Episode list · Scott Bakula · Full cast & crew · PlotMissing: non- | Show results with:non-
[32]
Quantum Leap: revisiting the highs and lows | Den of Geek
Dec 9, 2014 · I'd argue that Quantum Leap was one of the best sci-fi shows that really didn't need that much in the way of fictionalised science. Indeed, when ...Missing: 1950s | Show results with:1950s
[33]
15 Facts About Quantum Leap - Mental Floss
Mar 27, 2019 · 1. The show's title came from a physics books. · 2. Dean Stockwell's film career helped land him his role on Quantum Leap. · 3. Scott Bakula ...
[34]
'Quantum Leap' Canceled By NBC After 2 Seasons - Deadline
Apr 5, 2024 · EXCLUSIVE: NBC has decided not to proceed with a third season of its Quantum Leap reboot starring Raymond Lee. The news comes more than a month ...
[35]
Everything You Need to Know About the Quantum Leap Reboot
two seasons, 31 episodes in total — now. Ciara Riley Wilson as Leah, Raquel Elena Justice as Stacy, Anthony Turpel as ...
[36]
Quantum Leap (TV Series 2022–2024) - IMDb
Rating 6.3/10 (14,080) Quantum Leap: Created by Donald P. Bellisario, Steven Lilien, Bryan Wynbrandt. With Raymond Lee, Caitlin Bassett, Mason Alexander Park, Nanrisa Lee.
[37]
'Quantum Leap' Sequel Series Pilot at NBC Rounds Out Main Cast
Mar 9, 2022 · Steven Lilien and Bryan Wynbrandt are writing the pilot and will also executive produce under their I Have an Idea! Entertainment banner. Both ...<|separator|>
[38]
The Quantum Leap Reboot Just Brought Back the Original's Unused ...
Feb 21, 2024 · The original Quantum Leap ended after five seasons with the ambiguous finale, “Mirror Image,” in which Sam (Scott Bakula) changed the past so Al ...
[39]
Quantum Leap (TV Series 1989–1993) - Awards - IMDb
18 wins & 43 nominations. Academy of Science Fiction, Fantasy & Horror Films, USA. Scott Bakula and Dean Stockwell in Quantum Leap (1989).
[40]
The Quantum Leap Revival Was a Love Letter to the Original
Jan 14, 2025 · After setting things right, fans were met with a title card that simply read: “Sam Becket never returned home.” Yes, the title card ending was ...
[41]
Various - Music From The Television Series Quantum Leap
### Summary of Quantum Leap Soundtrack Album
[42]
GUS G. - Quantum Leap (SIGNED Double CD)
Bonus-CD with 7 Live-Tracks! Tracklisting: CD1: 01 Into The Unknown 02 Exosphere 03 Quantum Leap 04 Chronesthesia 05 Enigma Of Life 06 Judgement Day
[43]
GUS G. - QUANTUM LEAP - AFM Records
Oct 14, 2021 · The instrumental album relies on symmetry and brevity. Gus G. manages in an impressive way to center his guitar and replaces with her the ...
[44]
QUANTUM LEAP HEALTH CARE COLLABORATIVE - GuideStar
A 501C(3) charitable organization, Quantum Leap Healthcare Collaborative was established in 2005 as a collaboration between medical researchers.
[45]
Quantum Leap Healthcare Collaborative - Overview, News & Similar ...
Quantum Leap Healthcare Collaborative is a 501C(3) charitable organization established in 2005 as a collaboration between medical researchers at University ...
[46]
I-SPY TRIAL: Neoadjuvant and Personalized Adaptive Novel Agents ...
I-SPY2 will assess the efficacy of novel drugs in sequence with standard chemotherapy. The goal is identify treatment strategies for subsets on the basis of ...
[47]
I-SPY 2: a Neoadjuvant Adaptive Clinical Trial Designed to ... - NIH
I-SPY 2 is an adaptive trial to improve outcomes in high-risk breast cancer by testing new drugs, using pCR as endpoint, and individualized treatment.Missing: mission achievements
[48]
FNIH Announces First Results of I-SPY 2 Breast Cancer Clinical Trial
Dec 26, 2013 · I-SPY 2 graduates two promising drugs that show improved response for women with HER2-positive and triple-negative breast cancer.
[49]
I-SPY Trials - For Investigators - Quantum Leap
The I-SPY series of trials are changing the way new treatments are developed for breast cancer, helping make available new, better and more personalized ...Missing: achievements | Show results with:achievements
[50]
https://fnih.org/press-release/fnih-announces-first-results-of-i-spy-2-breast-cancer-clinical-trial/
[51]
New Data From Phase 2 I-SPY 2 TRIAL Shows Improved Outcomes ...
Jun 5, 2017 · Findings showed that the addition of KEYTRUDA increased the estimated pathologic complete response (pCR) rate nearly threefold in patients with ...
[52]
I-SPY 2, an Innovative Clinical Trial Model that is Revolutionizing the ...
Sep 12, 2018 · I-SPY 2 is also impacting far beyond breast cancer by increasing efficiencies that promise to accelerate the development and delivery of more ...
[53]
A case study of the I-SPY 2 breast cancer clinical trials program
Results. To date, six drugs have graduated from I-SPY 2, identified as excellent candidates for phase 3 trials in their corresponding tumor subtype, and ...
[54]
Quantum Leap Appraisal Software
Our Appraisal Software is ... "Thom at Quantum Leap has given us excellent customer service. Fast, responsive, collaborative, and thorough. I cannot thank you ...Contact · Details · Events
[55]
Product Information - Quantum Leap Appraisal Software
Quantum Leap is the most powerful and flexible appraisal software available enabling you to setup the application to fit the way you appraise!
[56]
Quantum Leap Healthcare Collaborative
Quantum Leap aims to turn one-size-fits-all treatment into personalized medicine, bridging care and research, and advancing innovative, lifesaving work.I-SPY 2.2 Trial · About I-SPY 2 · I-SPY 2 Trial · I-SPY LeadershipMissing: founded 2010 mission achievements<|control11|><|separator|>
[57]
Neoadjuvant T-DM1/pertuzumab and paclitaxel/trastuzumab ...
Nov 5, 2021 · The study sponsor, Quantum Leap Healthcare Collaborative, provided administrative, operational and software support for the design, data ...Missing: simulation | Show results with:simulation
[58]
Quantum Leap | Board Game - BoardGameGeek
Rating 7.1/10 (19) In Quantum Leap, each player's stones start dispersed on the board. Your goal is to be the last player making a valid move. Stones can only move by capturing ...
[59]
Quantum Leap / The Solution is our Product
We are a deep-tech and hard-tech company, building the next generation solutions for a truly better world. We also help brands as their strategic technology ...About Us · Contact · AquaPal · FaceGuard