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Last modified by Ricardo Julio Rodríguez Fernández on 2026/06/30 12:53
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To version 10.1
edited by Ricardo Julio Rodríguez Fernández
on 2025/08/04 09:51
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10 10  ----
11 11  
12 12  === P1 (analytical) - NLO Corrections to Pair Production ===
13 -==== Summer Fellow: Juan Esteban **Suárez Avendaño**
14 -====
15 15  
16 16  **Introduction:**
17 17  
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22 22  **Expected outcomes:**
23 23  
24 24  * Understanding of Feynman diagram rules and their application to QED processes
25 -* Tree-level and one-loop calculations for e⁺e⁻ → μ⁺μ⁻
26 -* Cross-section computation and application of dimensional regularization
27 -* Optional: determination of the tau lepton mass from cross-section ratios
28 -* Optional: estimation of Nc from the ratio of hadronic to leptonic cross-sections
23 +* Tree-level and one-loop calculations for e⁺e⁻ → μ⁺μ⁻IGFAE_2025_10
24 +* Cross-section computation and application of dimensional regularizationIGFAE_2025_10
25 +* Optional: determination of the tau lepton mass from cross-section ratiosIGFAE_2025_10
26 +* Optional: estimation of Nc from the ratio of hadronic to leptonic cross-sectionsIGFAE_2025_10
29 29  
30 30  **Requirements:**
31 31  
32 -* Familiarity with special relativity and quantum mechanics
30 +* Familiarity with special relativity and quantum mechanicsIGFAE_2025_10
33 33  * Basic calculus skills
34 34  
35 35  ----
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44 44  
45 45  **Expected outcomes:**
46 46  
47 -* Understanding the conceptual basis of jet quenching in a quark-gluon plasma
48 -* Application of Feynman diagrams to model jet–medium scattering processes
49 -* Derivation of the Leading-Order (first-opacity) contribution to induced gluon radiation
50 -* Optional: Study of detailed balance using basic thermal field theory techniques
45 +* Understanding the conceptual basis of jet quenching in a quark-gluon plasmaIGFAE_2025_10
46 +* Application of Feynman diagrams to model jet–medium scattering processesIGFAE_2025_10
47 +* Derivation of the Leading-Order (first-opacity) contribution to induced gluon radiationIGFAE_2025_10
48 +* Optional: Study of detailed balance using basic thermal field theory techniquesIGFAE_2025_10
51 51  * Optional: Extension to higher-order terms in the opacity expansion
52 52  
53 53  **Requirements:**
54 54  
55 -* Familiarity with Feynman diagrammatics
53 +* Familiarity with Feynman diagrammaticsIGFAE_2025_10
56 56  * Basic calculus skills
57 57  
58 58  ----
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67 67  
68 68  **Expected outcomes:**
69 69  
70 -* Familiarity with numerical integration techniques
71 -* Implementation of Leading-Order matrix elements for dijet production in proton–proton collisions
72 -* Calculation and analysis of differential cross-sections with comparison to experimental data
73 -* Optional: Extension to beyond LO corrections
68 +* Familiarity with numerical integration techniquesIGFAE_2025_10
69 +* Implementation of Leading-Order matrix elements for dijet production in proton–proton collisionsIGFAE_2025_10
70 +* Calculation and analysis of differential cross-sections with comparison to experimental dataIGFAE_2025_10
71 +* Optional: Extension to beyond LO correctionsIGFAE_2025_10
74 74  * Optional: Application to heavy-ion collisions via simple quenching models
75 75  
76 76  **Requirements:**
77 77  
78 -* Basic familiarity with collider physics concepts
76 +* Basic familiarity with collider physics conceptsIGFAE_2025_10
79 79  * Programming experience and elementary numerical analysis skills
80 80  
81 81  ----
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89 89  
90 90  **Expected outcomes:**
91 91  
92 -* Familiarity with nuclear collision geometry and numerical integration techniques
93 -* Implementation of optical and Monte Carlo Glauber models
94 -* Optional: Calculation of eccentricities in non-central collisions
90 +* Familiarity with nuclear collision geometry and numerical integration techniquesIGFAE_2025_10
91 +* Implementation of optical and Monte Carlo Glauber modelsIGFAE_2025_10
92 +* Optional: Calculation of eccentricities in non-central collisionsIGFAE_2025_10
95 95  * Optional: Mapping of impact parameter to centrality classes
96 96  
97 97  **Requirements:**
98 98  
99 -* Basic familiarity with collider or nuclear physics concepts
97 +* Basic familiarity with collider or nuclear physics conceptsIGFAE_2025_10
100 100  * Programming experience and elementary numerical analysis skills
101 101  
102 102  ----
proposal2.txt
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