Molecular Physics |
In General
* Fullerenes: They contain at lwast
60 C atoms; C60 is Buckminsterfullerene, a.k.a.
Bucky ball, named after Buckminster Fuller, who invented the geodesic dome; Also the
(Sylvester graph of the) non-abelian group G60.
* Applications: Some contain atoms
inside, like 3He, that identify them as extrasolar.
@ Books: Debye 29 [polar molecules];
Emsley 99 [I];
Dahl 01;
Rowlinson 05 [forces];
Haw 06.
@ History: Esposito & Naddeo a1306 [Majorana, homopolar molecules and the exchange interaction];
Svidzinsky et al PT(14)jan [Bohr's model];
> s.a. history of physics.
@ Forces: Feynman PR(39) [forces inside molecules];
Stone 13 [intermolecular forces].
@ Dynamics: Liu PRP(14) [relativistic molecular quantum mechanics];
Brechet et al a1412 [rigorous quantum description
of molecular dynamics, rotations and vibrations];
Zak X-a1601 [normal modes, comprehensive description];
Koch et al a1810 [quantum control of molecular rotation].
@ Diatomic molecules: Sindelka & Moiseyev qp/06 [in an external electromagnetic field];
DeMille PT(15)dec [as windows onto fundamental physics].
@ Special molecules:
Chung & Sternberg AS(93) [buckminsterfullerene];
Gelbart et al PT(00)sep [DNA];
Xie et al Sci(04)apr
+ pw(04)apr [C50];
Popovas & Jørgensen A&A(16)-a1607 [molecular hydrogen, improved partition function for astrophysics];
Saßmannshausen & Deiglmayr PRL(16)
+ news pw(16)aug [giant, micron-sized Cs2 molecules];
Matyus & Cassam-Chenai a2011
[small molecules, emergence of the molecular shape].
@ Ultracold molecular gases: news pn(08)oct;
Carr et al NJP(09)-a0904;
Jin & Ye PT(11)may.
@ In astrophysics and cosmology:
Tielens RMP(13) [rev],
Tielens 21;
> s.a. astrophysics; extrasolar
systems; interstellar matter.
@ Related topics: Bader & Parker PT(01)mar [Loschmidt and molecular sizes];
Pivetta Phy(10) [luminescence of a single molecule];
Bowman & Suits PT(11)nov [roaming reactions];
Carvalho & Souza PhyA(12) [Carati-Galgani model of molecular collisions];
Pavić et al PhyA(13) [maximum entropy principle for rarefied molecular gas];
Cameron & Cotter JPB(18)-a1802 [relativistic properties];
Fernández a1904 [wave function permutation symmetry];
Date & Havenith a2105 [quantum states in magnetic fields].
> Related topics:
see composite quantum systems;
Lennard-Jones and van
der Waals Potential; technology [molecular machines].
> Online resources:
see Wikipedia page.
Interferometry > s.a. interference.
* Interferometry: 1999, A Zeilinger et al
obtained diffraction of C60 molecules from a grating; 2002,
interference of C70 molecules at 900 K observed [@ Brezger
et al PRL(02)],
which may be useful for decoherence studies; 2011, interference of large organic molecules
(more than 400 atoms).
@ General references: Bordé et al PLA(94) [with I2 molecules];
Hackermüller et al PRL(03)
+ pw(03)sep;
Arndt et al pw(05)mar [rev];
Cronin et al RMP(09)-a0712 [rev];
Venugopalan JSE-a1211.
@ With large molecules: Arndt et al Nat(99)oct
+ pw(99)oct [C60];
Brezger et al PRL(02) [C70 fullerene];
Nairz et al AJP(03)apr;
Gerlich et al nat(11)apr;
news pw(12)mar,
wired(12)mar;
Summy Phy(14);
Arndt et al a2101-in [decoherence experiments].
@ And internal molecular states:
Hillery et al PRA(05);
Gring et al PRA(14)-a1405.
Polymers
> s.a. graph theory in physics
/ regge calculus [polymerized manifolds].
* Examples: Carbyne, a linear
chain of C atoms; Dendrimers (molecules that branch off like trees).
* Composite: Blends of two or more
components that do not mix, like oil and water, forced into intimate contact to obtain
materials combining the best features of both; For example, polystyrene is very brittle
on its own, but when rubbery particles are incorporated, it can withstand large impacts;
Blending two polymers ordinarily produces a mayonnaise-like mixture or emulsion in which
micron-sized droplets of one polymer is distributed or dispersed in a matrix of the
other; Mayonnaise contains egg-coated oil droplets dispersed in vinegar.
@ General references: Kholodenko & Vilgis PRP(98) [geometrical and topological problems];
Witten RMP(98) [solutions];
Ladik PRP(99) [as solids];
Vilgis PRP(00) [path integrals and scaling];
Bower 02;
Rubinstein & Colby 03.
@ Branched: Bialas PLB(96)hl/95,
NPB(00)cm [correlations];
Durhuus & Jonsson MPLA(96)ht;
Jurkiewicz & Krzywicki PLB(97)ht/96;
Wheater & Correia NPPS(99)hl/98 [spectral dimension];
Ambjørn et al ht/99.
@ Entanglement: Ferrari & Lazzizzera JPA(99)ht/98;
Edwards & Müller-Nedebock JPA(99),
JPA(99).
@ And statistical mechanics: Ferrari & Lazzizzera NPB(99) [and Chern-Simons theory],
ht/99,
ht/99;
Aoki et al PTP(00)ht/99,
PRE(00)ht/99 [branched, scaling];
Giacomin 07 [random polymer models];
Kung 09 [geometry and phase transitions].
@ Meander problem: Harris ht/98;
Di Francesco CMP(98),
et al NPB(00)cm/99,
NPB(00).
@ Colloids, Flexible polymers, etc: de Gennes & Badoz 96.
@ Theoretical molecular chain models: Malyshev & Muzychka TMP(14) [simplest model, phase transition].
@ Related topics:
De Kee & Wissbrun PT(98)jun [polymer fluids];
Guitter & Orlandini JPA(99) [knotted];
Ram PRP(14)
[molecular fluids, structure and freezing transitions];
> s.a. knots in physics.
main page
– abbreviations
– journals – comments
– other sites – acknowledgements
send feedback and suggestions to bombelli at olemiss.edu – modified 31 may 2021