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Article

The Science of Interstellar by Kip Thorne: Book Review

The Science of Interstellar by Kip Thorne details educated guesses, speculations, and truths for anomalies, black and worm holes, blights, and slingshots.

Among stars are proofs to the universe's SOPs The Science of Interstellar acquaints film-going book-readers with educated guesses, speculations, and truths to account for black and worm holes, crop blights, and gravitational anomalies and slingshots in the 2014-released science fiction movie, Interstellar. It thereby brings to movie-lover attention the two concepts that guide the film: • Action, characters, and dialogue advance solidly established knowledge of space and laws of physics; and • Speculations about physics and space call upon the ideas of respected scientists. It therefore commences with: • one-page foreword by film director Christopher Nolan; • two-page preface; and • 14-page presentation on Interstellar’s odyssey, from conceptualization in October 2005 to release in October 2014. The Science of Interstellar then divides into 31 chapters grouped under seven thematic parts. ***** https://interstellar.withgoogle.com/ *****

Humans are thought to be able to live only in four dimensions.

The Relativity Mission; Gravity Probe B and Space-Time
The Relativity Mission; Gravity Probe B and Space-Time — NASA, Public Domain, via Wikimedia Commons

Among stars begin queries for life anywhere, everywhere

 

Part One elaborates laws that consider:

  • big bangs, intense gravity, time travel;
  • black and worm holes, expanding universes, warped space-times;
  • galaxies, planets, stars; and
  • quantum-fluctuating atoms, molecules, particles.

It functions as introduction to and review of:

  • motion laws by Sir Isaac Newton (December 25, 1642 – March 20, 1726/7);
  • quantum laws by Niels Bohr (October 7, 1885 – November 18, 1962), Werner Heisenberg (December 5, 1901 – February 1, 1976), and Erwin Schrödinger (August 12, 1887 – January 4, 1961);
  • quantum gravity laws by Michael Green (born May 22, 1946) and John Schwarz (born November 22, 1941); and
  • relativistic laws by Albert Einstein (March 14, 1879 – April 18, 1955).

It generates discussion on four space-related challenges:

  • super-fast;
  • super-intense;
  • super-large; and
  • super-small.

 

intriguing possibilities of shortcuts via wormhole travels

artist's conception of wormhole travel
artist's conception of wormhole travel — NASA, Public Domain, via Wikimedia Commons

Among stars come routes through multi-dimensional, multi-shaped space

 

Parts Two, Five, and Seven handle travel near and within black holes. Black holes inhabit galactic centers. They jam all matter from their respectively burned-out, dead, imploded, massive, nuclear fuel-spent, spinning stars into warped space-times. They thereby keep everything hidden at their singularities (centers), orbiting at their circumferences (uppers), and timeless at their horizons (surfaces).

Parts Three, Four, and Six link Earth and Gargantua through:

  • the impetus of impending asphyxiation and starvation on crop-blighted, oxygen-depleted Earth;
  • the means of extra-solar system-built tesseracts (cubes within cubes) and wormholes; and
  • opportunities of colonies on Edmunds’, Mann’s, and Miller’s exo-planets and stations off Saturn.

Their plausibility manifests Earth’s four-dimensionalism within space’s curled-up, curved, ten-dimensionalism. Resolution necessitates dominating gravitational anomalies. 

 

In "Interstellar" neighborhood of gas giant Saturn, with the most complex and largest ring system in the Solar System, is favored for colonies on Edmunds’, Mann’s, and Miller’s exoplanets and stations.

Saturn's equinox occurs once in about 15 Earth years; PIA11667 The Rite of Spring
Saturn's equinox occurs once in about 15 Earth years; PIA11667 The Rite of Spring — NASA/JPL/Space Science Institute, Public Domain, via Wikimedia Commons

Among stars dare scientists to seek habitable exo-planets

 

Gravitational anomalies operate outside good-faith predictions on:

  • Mercury’s furthest distance from the Sun;
  • relative galactic brightnesses and speeds; and
  • universal crunches and rips.

Warped space-time problem-solves the 0.1 arc second of orientation change with each of Mercury’s completed orbits. Galactic and universal accelerations likewise quantify respective presences within estimated universal masses as:

  • 5% visible matter;
  • 27% gravity-lensing, image-distorting, light-bending dark matter; and
  • 68% expansion-slowing, gravity-repelling dark matter. 

So The Science of Interstellar nudges science fiction-loving movie-goers through culturally enriching, educationally entertaining, geo-historically enthralling adventures, thanks to:

  • Courier Kendallville, manufacturer;
  • Julia Druskin, Joe Lops, production managers;
  • Bjorn Holland, photographer;
  • Christopher Nolan, forewordist;
  • Kip Thorne, author;
  • W.W. Norton & Company, publisher;
  • Devin Washburn, cover designer; and
  • Chris Welch, book designer.

 

Wormhole travel could occur much closer to home: As travelable shortcuts, wormholes may connect not only two universes but also two distant regions in the same universe.

Wormhole of Tübingen University by Corvin Zahn, Institute of Physics, Universität Hildesheim, Space Time Travel (http://www.spacetimetravel.org/); panorama of the dunes by Philippe E. Hurbain
Wormhole of Tübingen University by Corvin Zahn, Institute of Physics, Universität Hildesheim, Space Time Travel (http://www.spacetimetravel.org/); panorama of the dunes by Philippe E. Hurbain — CC BY SA 2.5 (https://creativecommons.org/licenses/by-sa/2.5/deed.en), via Wikimedia Commons

Acknowledgment

 

My special thanks to talented artists and photographers/concerned organizations who make their fine images available on the internet.

 

Image Credits

 

Humans are thought to be able to live only in four dimensions.
Artist concept depicts Gravity Probe B orbiting the Earth to measure space-time, a four-dimensional description of the universe including height, width, length, and time.
The Relativity Mission; Gravity Probe B and Space-Time: NASA, Public Domain, via Wikimedia Commons @ https://commons.wikimedia.org/wiki/File:GPB_circling_earth.jpg

intriguing possibilities of shortcuts via wormhole travels
1998 digital art by Les Bossinas (Cortez III Service Corp.), illustrator (1984 - 2001) at NASA John H. Glenn Research Center at Lewis Field, northeastern Ohio
artist's conception of wormhole travel: NASA, Public Domain, via Wikimedia Commons @ https://commons.wikimedia.org/wiki/File:Wormhole_travel_as_envisioned_by_Les_Bossinas_for_NASA.jpg

In "Interstellar" neighborhood of gas giant Saturn, with the most complex and largest ring system in the Solar System, is favored for colonies on Edmunds’, Mann’s, and Miller’s exoplanets and stations.
Mosaic of 75 exposures of Saturn taken over 8 hour timespan from a distance of approximately 847,000 kilometers (526,000 miles) by Cassini-Huygens unmanned spacecraft on August 12, 2009, beginning about 1.25 days after Saturn's equinox.
Saturn's equinox occurs once in about 15 Earth years; PIA11667 The Rite of Spring: NASA/JPL/Space Science Institute, Public Domain, via Wikimedia Commons @ https://commons.wikimedia.org/wiki/File:Saturn,_its_rings,_and_a_few_of_its_moons.jpg

Wormhole travel could occur much closer to home: As travelable shortcuts, wormholes may connect not only two universes but also two distant regions in the same universe.
Image depicts wormhole connecting place in front of Tübingen University's physical institutes with sand dunes near Boulogne sur Mer, northern France (panorama of the dunes: Philippe E. Hurbain).
Wormhole of Tübingen University by Corvin Zahn, Institute of Physics, Universität Hildesheim, Space Time Travel (http://www.spacetimetravel.org/); panorama of the dunes by Philippe E. Hurbain, CC BY SA 2.5, via Wikimedia Commons @ https://commons.wikimedia.org/wiki/File:Wurmloch.jpg

Ad astra per aspera ("to the stars through hardships"): Terrestrial challenges impel main characters of "Interstellar" into interstellar overdrive.
interstellar overdrive; view of starry nighttime sky from downtown Pittsburgh, southwestern Pennsylvania: Brian Donovan (brdonovan), CC BY-SA 2.0, via Flickr @ https://www.flickr.com/photos/58621196@N05/6933849919/

 

Sources Consulted

 

Thorne, Kip. 2014. The Science of Interstellar. New York, NY, U.S.A.; and London, England, U.K.: W.W. Norton & Company.

 

Ad astra per aspera ("to the stars through hardships"): Terrestrial challenges impel main characters of "Interstellar" into interstellar overdrive.

interstellar overdrive; view of starry nighttime sky from downtown Pittsburgh, southwestern Pennsylvania
interstellar overdrive; view of starry nighttime sky from downtown Pittsburgh, southwestern Pennsylvania — Brian Donovan (brdonovan), CC BY-SA 2.0 (https://creativecommons.org/licenses/by-sa/2.0/), via Flickr
the end which is also the beginning
the end which is also the beginning — OpenClips, Public Domain, via Pixabay

The Science of Interstellar by Kip Thorne ~ Available via Amazon

Interstellar

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Me and my purrfectly purrfect Maine coon kittycat, Augusta "Gusty" Sunshine

DerdriuMarriner, All Rights Reserved

Updated September 11, 2026

Comments

DerdriuMarrinerSep 26, 2026

Yet another surname elucidating an excellent educator who elaborates exceptional, excellent emanations in our solar system, our universe is Dr. Nikki Miller (https://nikkimiller.space/).

Dr Miller acts as postdoctoral student at Uppsala University, Uppsala City, Uppsala County, coastal-east Sweden.

She specializes in such stellar characterizations as M-dwarf and solar-type stars significant to the European Space Agency's upcoming PLATO mission seeking Earth-like planets around Sun-like stars.

DerdriuMarrinerSep 25, 2026

Another surname elucidating an excellent educator who elaborates exceptional, excellent emanations in our solar system, our universe is Dr. Chris Mann.

Dr. Mann acts as National Research Council of Canada postdoctoral research fellow at the Herzberg Astronomy and Astrophysics Research Centre in Victoria, British Columbia, Canada.

He is team member of the Subaru Pathfinder Instrument for Detecting Exoplanets and Retrieving Spectra.

DerdriuMarrinerSep 24, 2026

The film Interstellar does not draw together a real-life Edmunds, a real-life Mann or a real-life Miller even as those surnames drive and drove such astrophysics as Earthlike exoplanets.

The afore-encountered surnames elucidate excellent educators who elaborate or elaborated exceptional, excellent emanations in our solar system, our universe.

For example, three comment boxes below is the indication identifying astronomy-data, astronomy-reference provider Edmunds Astronomical Catalog and Edmunds Star Catalog

DerdriuMarrinerSep 23, 2026

The Johnson-Harrold article cited in the comment box below conveys Edmunds', Mann's and Miller's exoplanets as respectively dusty, rocky, somewhat Earthlike; icy nothingness; water, water everywhere (and not a configuration to survive on!).

DerdriuMarrinerSep 22, 2026

An article online by writer Jayla Johnson and illustrator Emily Harrold considers Edmunds', Mann's and Miller's exoplanets.

The title is "Mann, Miller, and Edmunds: The Science Behind the Planets of Interstellar."

The afore-indicated article is available through Digital Commons (https://digitalcommons.denison.edu/cgi/viewcontent.cgi?article=1573&context=synapse).

DerdriuMarrinerSep 21, 2026

For those asking about Edmunds' exoplanets, the afore-articulated phrase arises from astronomy-data, astronomy-reference provider Edmunds Astronomical Catalog and Edmunds Star Catalog.

DerdriuMarrinerJul 2, 2015

Mira, English-language science fiction plots and styles particularly are influenced by the Mars-directed writings of Isaac Asimov, Ray Bradbury, Arthur C. Clarke, and Robert A. Heinlein. Can it be one of those four that you're thinking of?

MiraJul 1, 2015

Yes, Mars, with its water as ice, is certainly interesting. I read somewhere how this whole interest in Mars began in science fiction but now I forget.

DerdriuMarrinerJul 1, 2015

Mira, It'll be interesting to read the perspectives -- on our galaxy, solar system, and universe -- which Mars gives us if the data collected and being gathered is made available and understandable and if astronaut landings actually take place 15 years from now.

MiraJun 29, 2015

This just boggles the mind. I think they have developed outrageous theories based on very little scientific, demonstrable proof. I agree that it's hard to conduct many experiments when you want to find out the origin of the universe, and I also agree that the efforts to understand these things are commendable, but . . . :) Anyway, I can see why wormholes would be comsidered unstable. It appears that much of the universe IS unstable. I'm surprised our Solar system is so dependable :)

DerdriuMarrinerJun 29, 2015

Mira, Wormholes are complicated for science too since they're unstable and -- according to theory -- would keep trying to close up even when they're being used.

MiraJun 29, 2015

I love science fictional accounts of wormholes but the physics is definitely too complicated for me :) You, on the other hand, seem quite passionate about it lately. I also have some conceptual problems with theoretical physics. Just how exactly they go about postulating the number of dimensions in a universe. I know they have equations and it all has to work out, but maybe the equations should also be different in those universes, don't you think?
DerdriuMarriner
DerdriuMarriner
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