antigravity and equivalence principle savely g karshenboim pulkovo observatory (ГАО) (st....

55
Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Upload: arthur-nichols

Post on 02-Jan-2016

217 views

Category:

Documents


1 download

TRANSCRIPT

Page 1: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Antigravity and Equivalence principle

Savely G Karshenboim

Pulkovo observatory (ГАО) (St. Petersburg)and Max-Planck-Institut für Quantenoptik

(Garching)

Page 2: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Outline EP

Deflection of light Dirac equation Problem of binding

energy

Consistent picture Curved space Inertial systems Red shift for

photons vs. blue shift for clocks

Two-body systems with antiparticles

Page 3: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Matter, antimatter and light We do have an

efficient access to matter to study its gravity, but we do not have an efficient access to antimatter to study gravity.

However, the world does not consist of matter and antimatter. There are purely neutral objects, such as photons.

Page 4: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Matter, antimatter and light However, the

world does not consist of matter and antimatter. There are purely neutral objects, such as photons.

Comparison of light and matter in gravitation field gives a hint, what could we expect from comparison of matter and antimatter.

Page 5: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP: for light and matter Red shift Deflection of light

Page 6: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Curved space and deflection of light

Page 7: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Curved space and deflection of light Curved space is a

good concept if it universally affects everything, i.e. in case of EP.

Page 8: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Curved space and deflection of light Curved space is a

good concept if it universally affects everything, i.e. in case of EP.

We may also speak about a flat space with the gravitational interaction presented, but nothing remains unaffected.

Page 9: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Curved space and deflection of light Curved space is a

good concept if it universally affects everything, i.e. in case of EP.

We may also speak about a flat space with the gravitational interaction presented, but nothing remains unaffected.

There is no material substance to realize the flat space.

Page 10: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Free falling elevator and deflection of light

Light propagationfrom inside of anelevator

Light propagationfrom outside of anelevator

Falling elevator versus time

Page 11: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Free falling M-elevator and deflection of light

Light propagationfrom inside of anM elevator

Light propagationfrom outside of anM elevator

Falling M elevator versus time

Page 12: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Free falling M and Mbar elevators and deflection of light

Light propagationfrom inside of Mand anti-M elevators,in case of EP

Light propagationfrom outside

Falling elevator versus time

Page 13: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Deflection of light (suggesting antigravity)

matter:hydrogen

antimatter:antihydrogen

Page 14: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Deflection of light (suggesting antigravity)

matter:hydrogen

antimatter:antihydrogen

neutral:positronium,and photonsphotons

Does not look really great!Does not look really great!

Page 15: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Deflection of light (suggesting antigravity)

matter:hydrogen

antimatter:antihydrogen

neutral:positronium,and photonsphotons

Does not look really great!Does not look really great!

Real light behaves in as an ultrarelativistic particle of matter!

Page 16: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Deflection of light and EP There is no way to

simultaneously (but separately) keep exact EP for matter and light, antimatter and light in case of antigravity.

The only possibility is to allow mg/mi to vary for matter and antimatter at the same level as we are able to verify deflection of light as it follows from GR (~1%).

Page 17: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP: the Dirac equation Dirac equation

describes an electron.

Dirac equation has been checked with a high accuracy.

It predicts a positron with the same mass (rest energy) and opposite charge.

If gravitation for electron and positron is not the same we would arrive at a problem.

Page 18: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Problem of binding energy In case of inertial

mass and in case of EP, binding energy is sufficient to describe a bound state.

In case of non-universal mg/mi for different components, we should rather speak about `bound masses´. I.e. We have to split the binding energy between the components.

E.g. comparing g-2 of e+ and e–, we observe certain energy levels.

Page 19: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Antigravity and inertial systems Inertial system:

a free particle has no acceleration.

Energy may conserve.

Non-inertial system: a free particle may be acceletared. It has no potential energy, but may change its kinetic energy.

Energy cannot be conserved.

Page 20: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Antigravity and inertial systems Non-inertial

system: a free particle may be acceletared. It has no potential energy, but may change its kinetic energy.

Energy cannot be conserved.

Introduce forces of inertia: they immitate potential energy and immitate conservation of energy.

Page 21: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems The force of inertia is

proportional to the inertial mass of a particle.

The force of gravity is proportional to the gravitational mass of the particle.

As far as these two masses are the same, we cannot locally distinguish a non-inertial frame and an inertial frame with a [different] gravity.

Page 22: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems As far as these

two masses are the same, we cannot locally distinguish a non-inertial frame and an inertial frame with a [different] gravity.

The free falling system looks like an inertial system.

Page 23: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems As far as these

two masses are the same, we cannot locally distinguish a non-inertial frame and an inertial frame with a [different] gravity.

The free falling system looks like an inertial system (for an insider!).

The oudsider may see the source of gravity and thus distinguish (in part) between the gravity and non-inertiality.

Page 24: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems As far as these

two masses are the same, we cannot locally distinguish a non-inertial frame and an inertial frame with a [different] gravity.

The free falling system looks like an inertial system (for an insider!).

The oudsider may see the source of gravity and thus distinguish (in part) between the gravity and non-inertiality.

Page 25: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems The oudsider may

see the source of gravity and thus distinguish in part between the gravity and non-inertiality.

The outsider understands that the free falling system is a non-inertial system with gravity, where forces of inertia and gravity exactly compensate each the other

Page 26: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems The oudsider may

see the source of gravity and thus distinguish in part between the gravity and non-inertiality.

The outsider understands that the free falling system is a non-inertial system with gravity, where forces of inertia and gravity exactly compensate each the other as far as mi=mg.

Page 27: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems The outsider

understands that the free falling system is a non-inertial system with gravity, where forces of inertia and gravity exactly compensate each the other as far as mi=mg.

If mimg then some `free´ particles will have got accelerated. The energy is not conserved

Page 28: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

EP and non-inertial systems The outsider

understands that the free falling system is a non-inertial system with gravity, where forces of inertia and gravity exactly compensate each the other as far as mi=mg.

If mimg then some `free´ particles will have got accelerated. The energy is not conserved unless we explicitly introduce the forces of inertia and gravity which do not compensate each the other anymore.

Page 29: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Conservation of energy and `true´ inertial frames All variety of

coordinates in GR and the very possibility to introduce the `curved´ space come from universality of gravity

Page 30: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Conservation of energy and `true´ inertial frames All variety of

coordinates in GR and the very possibility to introduce the `curved´ space come from universality of gravity and from universal cancelation between forces of inertia and forces of gravity.

Not anymore.

Page 31: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Conservation of energy and `true´ inertial frames All variety of

coordinates in GR and the very possibility to introduce the `curved´ space come from universality of gravity and from universal cancelation between forces of inertia and forces of gravity.

Not anymore. Now we have to

introduce the `absolute´ inertial frame with gravity.

Page 32: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Conservation of energy and `true´ inertial frames A good choice is

an inertial system in which we explicitely describe gravity, e.g., the Earth gravity.

We are still free falling in respect to all other gravitation sources, which are not taken into account explicitly, which is not good.

Page 33: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Gravitational and motional effects Now I will discuss

gravitational effects and ignore motional effects.

That is possible because I am interested in differential effects.

Within GR the motional effects are closely related to gravitational and often cancel them.

However, differential motional effects such as Doppler effect are equal to zero.

Page 34: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Red shift = {(E=mc2) + (mi=mg) + Newtonian gravity}

E = m0c2 + m0gh

E = m0c2

h

E = (m0+m) (c2 + gh)

E = (m0+m)c2 h0 = mc2

hh = m(c2+gh)

ground state excited state transition frequency

All clocks upstairs are blue shifted, photon frequencies are not shifted.When photon is going up it disagrees with the clock by / = (gh/c2).

Page 35: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Red shift = {(E=mc2) + (mi=mg) + Newtonian gravity}

E = m0c2 + m0gh

E = m0c2

h

E = (m0+m) (c2 + gh)

E = (m0+m)c2 h0 = mc2

hh = m(c2+gh)

ground state excited state transition frequency

All clocks upstairs are blue shifted, photon frequencies are not shifted.When photon is going up it disagrees with the clock by / = (gh/c2).

The shift is universal for all clocks once the gravity is proportional to their inertial mass and thus the shift by itself cannot be detected.

Page 36: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Red shift = {(E=mc2) + (mi=mg) + Newtonian gravity}

E = m0c2 + m0gh

E = m0c2

h

E = (m0+m) (c2 + gh)

E = (m0+m)c2 h0 = mc2

hh = m(c2+gh)

ground state excited state transition frequency

All clocks upstairs are blue shifted, photon frequencies are not shifted.When photon is going up it disagrees with the clock by / = (gh/c2).

The shift is universal for all clocks once the gravity is proportional to their inertial mass and thus the shift by itself cannot be detected. That is correct for all clocks of matter. Once we suggest antigravity

for antimatter – that is not correct for antimatter anymore!

Page 37: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Red shift = {(E=mc2) + (mi=mg) + Newtonian gravity}

E = m0c2 + m0gh

E = m0c2

h

E = (m0+m) (c2 + gh)

E = (m0+m)c2 h0 = mc2

hh = m(c2+gh)

ground state excited state transition frequency

All clocks upstairs are blue shifted, photon frequencies are not shifted.When photon is going up it disagrees with the clock by / = (gh/c2).

The shift is universal for all clocks once the gravity is proportional to their inertial mass and thus cannot be detected. That is correct for all clocks of matter. Once we suggest antigravity

for antimatter – that is not correct for antimatter anymore!

Gravitational red shift is a generic property of any relativistic theory of gravitation.

Page 38: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞) ?

Hydrogen: Gravity

mmgg = m = mii

Spectroscopy 1s-2s Other

transitions Theory

calculable frequency in terms of me and

Ry

Antihydrogen: [Anti]gravity

mmgg = – m = – mii

Spectroscopy 1s-2s ? HFS ?

Theory needs me+ &

mp-

otherwise: all is the same as for H

Page 39: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞)?

Hydrogen: Gravity

mmgg = m = mii

Spectroscopy 1s-2s Other

transitions Theory

calculable frequency in terms of me and

Ry

Antihydrogen: [Anti]gravity

mmgg = – m = – mii

Spectroscopy 1s-2s ? HFS ?

Theory needs me+ &

mp-

otherwise: all is the same as for H

To be blue shifted (∞).To be red shifted (∞).

Page 40: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞) ?

Hydrogen: Gravity

mmgg = m = mii

Spectroscopy 1s-2s Other

transitions Theory

calculable frequency in terms of me and

Ry

Positronium: [Anti]gravity

mmgg = 0 = 0

Spectroscopy 1s-2s HFS

Theory needs me+ &

me-

calculable frequency in terms of me and

Antihydrogen: [Anti]gravity

mmgg = – m = – mii

Spectroscopy 1s-2s ? HFS ?

Theory needs me+ &

mp-

otherwise: all is the same as for H

To be blue shifted (∞).To be red shifted (∞). To be not shifted.

Page 41: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞)?

Hydrogen 1s-2s Equivalence for H

mg = mi

Frequency is calculable in terms of me and

Positronium 1s-2s Antigravity:

mg = 0

Frequency is calculable in terms of me and

Page 42: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞) ?

Hydrogen 1s-2s Equivalence for H

mg = mi

Frequency is calculable in terms of me and

Positronium 1s-2s Antigravity:

mg = 0

Frequency is calculable in terms of me and while neglecting gravity

Page 43: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞)?

Hydrogen 1s-2s Equivalence for H

mg = mi

Frequency is calculable in terms of me and

Positronium 1s-2s Antigravity:

mg = 0

Frequency is calculable in terms of me and

Comparison of theory against experiment for Ps is the sameas comparison of H and Ps,

because theory of Ps speaks in terms of Ry from H

Page 44: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞) ?

Hydrogen 1s-2s Equivalence for H

mg = mi

Frequency is calculable in terms of me and

Positronium 1s-2s Antigravity:

mg = 0

Frequency is calculable in terms of me and

Comparison of theory against experiment for Ps is the sameas comparison of H and Ps,

because theory of Ps speaks in terms of Ry from H

Page 45: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞)?

Hydrogen 1s-2s Equivalence for H

mg = mi

Frequency is calculable in terms of me and

Positronium 1s-2s Antigravity:

mg = 0

Frequency is calculable in terms of me and

Comparison of theory against experiment for Ps is the sameas comparison of H and Ps,

because theory of Ps speaks in terms of Ry from H

The results are consistent at level of about few parts in 109.

Page 46: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift (in respect to zero gravity r=∞) ?

Hydrogen 1s-2s Equivalence for H

mg = mi

Frequency is calculable in terms of me and

Positronium 1s-2s Antigravity:

mg = 0

Frequency is calculable in terms of me and

Comparison of theory against experiment for Ps is the sameas comparison of H and Ps,

because theory of Ps speaks in terms of Ry from H

The results are consistent at level of about few parts in 109

suggesting no gravitational effects.

Page 47: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

How large is absolute red shift? Motion around center

of galaxy:

v = 10-3 c / = 10-6

Motion around Sun

v =10-4 c /=10-8

Basic equations:a = v2/Ra = U/RU = a·R/ = U/c= v2/c2

It is huge!

va

R

Page 48: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Can we measure the absolute red shift? Hydrogen 1s-2s Equivalence for H

mg = mi

Frequency is calculable in terms of me and

Positronium 1s-2s Antigravity:

mg = 0

Frequency is calculable in terms of me and

The results are consistent at level of about few parts in 101099.

Should be red shifted (∞). Should be immune.Should be immune.

Page 49: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Effects, uncertainties, sensitivities

Gravitation effect U/c2 Uncertainty/Sensitivity

10-6

10-9

10-12

10-15

Solar gravity (∞)

Galactic gravity (∞)

Solar gravity (perihelion-aphelion)

Moon gravity (day-night)

Earth gravity (100 m)

Ps 1s-2s (th+exp)Mu 1s-2s (th+exp)

H 1s-2s (exp)

H HFS 1s (th + exp)

Anti-p helium

g-2 (Dirac eq)

10-18

Solar gravity (day-night)

Earth gravity (1 m)best clocks

Page 50: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Effects, uncertainties, sensitivities: now including particle physics

Gravitation effect U/c2 Uncertainty/Sensitivity

10-6

10-9

10-12

10-15

Solar gravity (∞)

Galactic gravity (∞)

Solar gravity (perihelion-aphelion)

Moon gravity (day-night)

Earth gravity (100 m)

Ps 1s-2s (th+exp)Mu 1s-2s (th+exp)

H 1s-2s (exp)

H HFS 1s (th + exp)

kaons m/m

B mesons m/m

D mesons m/m

Anti-p helium

g-2 (Dirac eq)

10-18

Solar gravity (day-night)

Earth gravity (1 m)best clocks

Page 51: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Testing the equivalence principle

Laboratory (UW): Earth gravity

Laser Lunar Ranging:Solar gravity

where and

Page 52: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Testing the equivalence principle

Laboratory (UW): Earth gravity

Laser Lunar Ranging:Solar gravity

Kaons:galactic field

where and

Other mesons: D B

Page 53: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

Theory again? OK: no galaxy, no CPT, no QED

aphelion: 152.1 Gm perihelion: 147.1 Gm

U/c2 = 3 × 10-10 – quite a large `small’ effect for oscillations.

Data on oscillations of Data on oscillations of K, B & D mesons leaveK, B & D mesons leaveno chance for antigravity.no chance for antigravity.

Page 54: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

References Atoms with

antiparticles:

Kaons:

Page 55: Antigravity and Equivalence principle Savely G Karshenboim Pulkovo observatory (ГАО) (St. Petersburg) and Max-Planck-Institut für Quantenoptik (Garching)

To conclude:matter is a `magic´ word

Nucleon structure: three consituent

quarks contains a

combination of sea quarks and antiquarks with admixture of gluons

+ a `label´ which is of matter.