ESA discovers artificial gravity?

As soon as our partner Scott declared in this forum that there isn't
anything new to be discovered, ESA announces this:
------------------------------------------------------------------------------
ESA News
http://www.esa.int

23 March 2006

Towards a new test of general relativity?

Scientists funded by the European Space Agency have measured the
gravitational equivalent of a magnetic field for the first time in a
laboratory. Under certain special conditions the effect is much larger
than expected from general relativity and could help physicists to make
a significant step towards the long-sought-after quantum theory of gravity.

Just as a moving electrical charge creates a magnetic field, so a moving
mass generates a gravitomagnetic field. According to Einstein's Theory
of General Relativity, the effect is virtually negligible. However,
Martin Tajmar, ARC Seibersdorf Research GmbH, Austria; Clovis de Matos,
ESA-HQ, Paris; and colleagues have measured the effect in a laboratory.

Their experiment involves a ring of superconducting material rotating up
to 6 500 times a minute. Superconductors are special materials that lose
all electrical resistance at a certain temperature. Spinning
superconductors produce a weak magnetic field, the so-called London
moment. The new experiment tests a conjecture by Tajmar and de Matos
that explains the difference between high-precision mass measurements of
Cooper-pairs (the current carriers in superconductors) and their
prediction via quantum theory. They have discovered that this anomaly
could be explained by the appearance of a gravitomagnetic field in the
spinning superconductor (This effect has been named the Gravitomagnetic
London Moment by analogy with its magnetic counterpart).

Small acceleration sensors placed at different locations close to the
spinning superconductor, which has to be accelerated for the effect to
be noticeable, recorded an acceleration field outside the superconductor
that appears to be produced by gravitomagnetism. "This experiment is the
gravitational analogue of Faraday's electromagnetic induction experiment
in 1831.

"It demonstrates that a superconductive gyroscope is capable of
generating a powerful gravitomagnetic field, and is therefore the
gravitational counterpart of the magnetic coil. Depending on further
confirmation, this effect could form the basis for a new technological
domain, which would have numerous applications in space and other
high-tech sectors," says de Matos. Although just 100 millionths of the
acceleration due to the Earth's gravitational field, the measured field
is a surprising one hundred million trillion times larger than
Einstein's General Relativity predicts. Initially, the researchers were
reluctant to believe their own results.

"We ran more than 250 experiments, improved the facility over 3 years
and discussed the validity of the results for 8 months before making
this announcement. Now we are confident about the measurement," says
Tajmar, who performed the experiments and hopes that other physicists
will conduct their own versions of the experiment in order to verify the
findings and rule out a facility induced effect.

In parallel to the experimental evaluation of their conjecture, Tajmar
and de Matos also looked for a more refined theoretical model of the
Gravitomagnetic London Moment. They took their inspiration from
superconductivity. The electromagnetic properties of superconductors are
explained in quantum theory by assuming that force-carrying particles,
known as photons, gain mass. By allowing force-carrying gravitational
particles, known as the gravitons, to become heavier, they found that
the unexpectedly large gravitomagnetic force could be modelled.

"If confirmed, this would be a major breakthrough," says Tajmar, "it
opens up a new means of investigating general relativity and it
consequences in the quantum world."

The results were presented at a one-day conference at ESA's European
Space and Technology Research Centre (ESTEC), in the Netherlands, 21
March 2006. Two papers detailing the work are now being considered for
publication. The papers can be accessed on-line at the Los Alamos
pre-print server using the references: gr-qc/0603033 and gr-qc/0603032.

For more detailed information, please contact:

Dipl-Ing Dr Martin Tajmar
Head of Business Field Space Propulsion
ARC Seibersdorf research GmbH
A-2444 Seibersdorf
Austria
Phone: +43 (0)5 05 50 31 42
Fax: +43 (0)5 05 50 33 66
Email: martin.tajmar @ arcs.ac.at
Web: http://ilfb.tuwien.ac.at/~tajmar

Dr Clovis J. de Matos
General Studies Officer
European Space Agency ESA-HQ
Advanced Concepts and Studies Office - EUI-AC
8-10 Rue Mario Nikis
75738 Paris Cedex 15
France
Tel: +33 (0)1 53 69 74 98
Fax: +33 (0)1 53 69 76 51
Email: clovis.de.matos @ esa.int

Related links

* ESA's General Studies Programme
http://www.esa.int/SPECIALS/GSP/index.html
* ARC Seibersdorf research GmbH (German)
http://www.space-applications.at/

In depth

* Possible gravitational anomalies in quantum materials (pdf)
http://esamultimedia.esa.int/docs/gs..._Detection.pdf

IMAGE CAPTIONS:

[Image 1:
http://www.esa.int/esaCP/SEM0L6OVGJE_index_1.html]
Experiment in ARC Seibersdorf research

Overall picture of the experimental apparatus where the Gravitomagnetic
London Moment in rotating superconductors has been detected.

Credits: ESA

[Image 2:
http://www.esa.int/esaCP/SEM0L6OVGJE...html#subhead2]
Gravitomagnetic induction of gravitational fields

An angularly accelerated superconductive ring induces non-Newtonian
gravitational fields in its neibourghood.

Credits: ESA

jacob navia wrote:
As soon as our partner Scott declared in this forum that there isn't
anything new to be discovered, ESA announces this:
------------------------------------------------------------------------------
ESA News
http://www.esa.int

23 March 2006

Towards a new test of general relativity?

Scientists funded by the European Space Agency have measured the
gravitational equivalent of a magnetic field for the first time in a
laboratory. Under certain special conditions the effect is much larger
than expected from general relativity and could help physicists to make
a significant step towards the long-sought-after quantum theory of gravity.

Just as a moving electrical charge creates a magnetic field, so a moving
mass generates a gravitomagnetic field. According to Einstein's Theory
of General Relativity, the effect is virtually negligible. However,
Martin Tajmar, ARC Seibersdorf Research GmbH, Austria; Clovis de Matos,
ESA-HQ, Paris; and colleagues have measured the effect in a laboratory.

Their experiment involves a ring of superconducting material rotating up
to 6 500 times a minute. Superconductors are special materials that lose
all electrical resistance at a certain temperature. Spinning
superconductors produce a weak magnetic field, the so-called London
moment. The new experiment tests a conjecture by Tajmar and de Matos
that explains the difference between high-precision mass measurements of
Cooper-pairs (the current carriers in superconductors) and their
prediction via quantum theory. They have discovered that this anomaly
could be explained by the appearance of a gravitomagnetic field in the
spinning superconductor (This effect has been named the Gravitomagnetic
London Moment by analogy with its magnetic counterpart).

Small acceleration sensors placed at different locations close to the
spinning superconductor, which has to be accelerated for the effect to
be noticeable, recorded an acceleration field outside the superconductor
that appears to be produced by gravitomagnetism. "This experiment is the
gravitational analogue of Faraday's electromagnetic induction experiment
in 1831.

"It demonstrates that a superconductive gyroscope is capable of
generating a powerful gravitomagnetic field, and is therefore the
gravitational counterpart of the magnetic coil. Depending on further
confirmation, this effect could form the basis for a new technological
domain, which would have numerous applications in space and other
high-tech sectors," says de Matos. Although just 100 millionths of the
acceleration due to the Earth's gravitational field, the measured field
is a surprising one hundred million trillion times larger than
Einstein's General Relativity predicts. Initially, the researchers were
reluctant to believe their own results.

"We ran more than 250 experiments, improved the facility over 3 years
and discussed the validity of the results for 8 months before making
this announcement. Now we are confident about the measurement," says
Tajmar, who performed the experiments and hopes that other physicists
will conduct their own versions of the experiment in order to verify the
findings and rule out a facility induced effect.

In parallel to the experimental evaluation of their conjecture, Tajmar
and de Matos also looked for a more refined theoretical model of the
Gravitomagnetic London Moment. They took their inspiration from
superconductivity. The electromagnetic properties of superconductors are
explained in quantum theory by assuming that force-carrying particles,
known as photons, gain mass. By allowing force-carrying gravitational
particles, known as the gravitons, to become heavier, they found that
the unexpectedly large gravitomagnetic force could be modelled.

"If confirmed, this would be a major breakthrough," says Tajmar, "it
opens up a new means of investigating general relativity and it
consequences in the quantum world."

The results were presented at a one-day conference at ESA's European
Space and Technology Research Centre (ESTEC), in the Netherlands, 21
March 2006. Two papers detailing the work are now being considered for
publication. The papers can be accessed on-line at the Los Alamos
pre-print server using the references: gr-qc/0603033 and gr-qc/0603032.

For more detailed information, please contact:

Dipl-Ing Dr Martin Tajmar
Head of Business Field Space Propulsion
ARC Seibersdorf research GmbH
A-2444 Seibersdorf
Austria
Phone: +43 (0)5 05 50 31 42
Fax: +43 (0)5 05 50 33 66
Email: martin.tajmar @ arcs.ac.at
Web: http://ilfb.tuwien.ac.at/~tajmar

Dr Clovis J. de Matos
General Studies Officer
European Space Agency ESA-HQ
Advanced Concepts and Studies Office - EUI-AC
8-10 Rue Mario Nikis
75738 Paris Cedex 15
France
Tel: +33 (0)1 53 69 74 98
Fax: +33 (0)1 53 69 76 51
Email: clovis.de.matos @ esa.int

Related links

* ESA's General Studies Programme
http://www.esa.int/SPECIALS/GSP/index.html
* ARC Seibersdorf research GmbH (German)
http://www.space-applications.at/

In depth

* Possible gravitational anomalies in quantum materials (pdf)
http://esamultimedia.esa.int/docs/gs..._Detection.pdf

IMAGE CAPTIONS:

[Image 1:
http://www.esa.int/esaCP/SEM0L6OVGJE_index_1.html]
Experiment in ARC Seibersdorf research

Overall picture of the experimental apparatus where the Gravitomagnetic
London Moment in rotating superconductors has been detected.

Credits: ESA

[Image 2:
http://www.esa.int/esaCP/SEM0L6OVGJE...html#subhead2]
Gravitomagnetic induction of gravitational fields

An angularly accelerated superconductive ring induces non-Newtonian
gravitational fields in its neibourghood.

Credits: ESA

Bonjour M. Navia,

Fascinating, fascinante.

A gravitometric field is formed in a spinning superconductor armature
and that is called the "Gravitomagnetic London Moment." That would
"have nmerous applications" indeed.

Is that all that Russian scientist has been trying to pawn off for the
past decade? The USAF also has some experiments in this sector, ripe
for tech transfer.

Maybe they can power it with "cold fusion".

It's a little early for "April Fool's" jokes.

Ciao,

Ross F.

On Fri, 24 Mar 2006 21:12:40 +0100, jacob navia
quoted, in part:

Scientists funded by the European Space Agency have measured the
gravitational equivalent of a magnetic field for the first time in a
laboratory.

It should be noted that this actually meant that they discovered the
gravitational *analogue* of a magnetic field. It does not mean that they
found that an electromagnet can also be used to produce artificial
gravity; instead, it means that moving massive objects can produce a new
kind of field.

Of course, the fact that the measured effect is hundreds of thousands of
times stronger than expected from General Relativity means that
experimental error of some kind - electromagnetic leakage, mechanical
vibration - is something to be strongly suspected. If the experiment can
be repeated, and this possibility eliminated, the results will indeed
open up a 'new domain' of science and technology as stated.

John Savard
http://www.quadibloc.com/index.html
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