This writeup is a compilation of the predictions for the forthcoming Heavy Ion Program at the Large Hadron Collider, as presented at the CERN Theory Institute ‘Heavy Ion Collisions at the LHC—Last Call for Predictions’, held from 14th May to 10th June 2007.
The remains of a feast; cells of Hypocrabro stirpicolus 92 23. An elderberry twig containing the nest of Hypocrabro stirpicolus 95 24. The nesting site of Paranothyreus cingulatis .... 97 25. Burrows of various forms made by Paranothyreus cingulatis 99 26. Figure of female Paranothyreus cingulatis 101 27. A clay bank where Xylocelia metathoracicus digs her burrows 28. The burrow and cells of Xylocelia metathoracicus 29. The burrow of Philanthus punctatus 30. Nests of the mud-dauber, Sceliphron caementarium, and Chalybion caeruleum 31. The opening to the burrow of Cerceris fumipennis 32. A Sceliphron nest remodelled to suit the needs of Trypoxylon clauatum 33. Alyson melleus, her burrow and prey 34. The burrow of Tachysphex terminatus 35. Notogonidea argentata, and her burrow 36. Priononyx atratum 37. Priononyx atratum filling her burrow 38. Priononyx atratum pounding the soil with her head 164 39. Two burrows of Priononyx atratum 171 40. Priononyx thomae riding her locust home 41. Priononyx thomae and Stizus unicinctus 183 42. Cinders carried by Priononyx thomae 185 43. Chlorion ichneumoneum, her burrow and prey.. . 195 44. Twin-celled burrows made by an unknown locusthuntress 199 45. The burrows of Sphex pictipennis 46. Sphex pictipennis carrying a small caterpillar .... 47. The position of egg of Sphex pictipennis on prey. 48. A locality study by Sphex pictipennis xiv 49-The cocoons of Sphex pictipennis 50. Ammophila procera asleep on a dried stem 51. The nest of Polistes 52. A nest of Polistes annularis among the branches.. 53. Vespula germanica thick as flies on a freshly removed rooster's head 54. The turret over the burrow of Odynerus geminus 55. A burrow of Odynerus geminus 56. A collection of mud-pellets carried out of the burrow by Odynerus geminus 57. Five burrows made by Odynerus geminus 58. Odynerus dorsalis, her burrow and her method of lowering the prey 59. The course of flight of Odynerus dorsalis to her water puddle 60. The burrow of Odynerus dorsalis 61. Two burrows of Odynerus dorsalis 62. An unusual Odynerus nest 63. The mandible-marks on the tunnel left by Odynerus dorsalis 64. All that remained after O. dorsalis feast on Pholisora catullus caterpillars 65. The nest of Odynerus pedestris 66. Odynerus foraminatus and her home in a log.. .. 67. The nest of Odynerus foraminatus in an elderberry stem 68. The burrows of a mining bee in a clay bank, some of the tunnels used by Ancistrocerus fulvipes. . 342 2 WASP STUDIES AFIELD perfected nervous and muscular organization and are certainly less beautifully formed and colored. Second, this unusual physical endowment is correlated, as would be expected, with extraordinary industries, or behavior. Certainly, with the single exception of the social Hymenoptera and the Termites, no insects show such a range of activities as the solitary wasps. Third, they are the lineal descendants of forms which gave rise to the social Hymenoptera. This seems to be so evident that Handlirsch actually derives the bees from the Sphegid, the social wasps from the Eumenid an...
Abstract:With an effective chiral flavour SU(3) model we show the effect of hadronic resonances on the QCD phase diagram. We state that varying the resonance couplings to the scalar and vector fields affects the order and location of the phase transition, the possible existence of a critical end point (CEP), and the thermodynamic properties. We present (strange) quark number susceptibilities at zero baryochemical potential and at three different points at the phase transition. Comparing results to lattice QCD, we state that reasonable large vector couplings limit the phase transition to a smooth crossover ruling out a CEP. PACS
Abstract. In an approach inspired by Polyakov loop extended NJL models, we present a nonlinear hadronic SU(3) σ-ω mean field model augmented by quark degrees of freedom. By introducing the effective Polyakov loop related scalar field Φ and an associated effective potential, the model includes all known hadronic degrees of freedom at low temperatures and densities as well as a quark phase at high temperatures and densities. Hadrons in the model exhibit a finite volume in order to suppress baryons at high T and µ This ensures that the right asymptotic degrees of freedom are attained for the description of strongly interacting matter and allows to study the QCD phase diagram in a wide range of temperatures and chemical potentials. Therefore, with this model it is possible to study the phase transition of chiral restoration and deconfinement. In this paper, the impact of quarks on the resulting phase diagram is shown. The results from the chiral model are compared to recent data from lattice QCD.
We discuss the present collective flow signals for the phase transition to quark-gluon plasma (QGP) and the collective flow as a barometer for the equation of state (EoS). A study of Mach shocks induced by fast partonic jets propagating through the QGP is given. We predict a significant deformation of Mach shocks in central Au+Au collisions at RHIC and LHC energies as compared to the case of jet propagation in a static medium. Results of a hydrodynamical study of jet energy loss are presented. The 3rd edition
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