Bubble Chamber Website Shane, Per, Peter, Szilvia, Luminita, Inger and Claude.

Slides:



Advertisements
Similar presentations
Masterclass Introduction to hands-on Exercise Aim of the exercise Find out what happens in proton-proton collisions at the LHC as seen by the ATLAS.
Advertisements

PARTICLE PHYSICS. INTRODUCTION The recorded tracks of sub atomic particles resulting from the collision of two protons in the ATLAS experiment at the.
Web Tools for NGSS.
EXAMPLE DATA: Beam: K - ; E = 4,2 GeV ; m K =m p /2 Target: Hydrogen atoms; R nucleus =10 -5 R atom me = mp/2000.
15-1 Physics I Class 15 Conservation of Angular Momentum.
Basic Measurements: What do we want to measure? Prof. Robin D. Erbacher University of California, Davis References: R. Fernow, Introduction to Experimental.
UNIT 2: OUTLINE SYLLABUS: 1st Lecture Introduction Hadrons and Leptons Spin & Anti-Particles The conservation laws: Lepton Number Baryon number Strangeness.
Identification of Upsilon Particles Using the Preshower Detector in STAR Jay Dunkelberger, University of Florida.
Particle Zoo & Classification Schemes. Conservation Rules 1. Charge 2. Baryon Number 3. Lepton Number (by flavor) 4. Strangeness 5. Angular Momentum 6.
Integrating Problem-Solving and Educational Software
Chapter 1 The Nature of Science
Targets of our work group Simple lessons with BC photographs History of BC Overview of 50-minutes lesson FAQs.
SCIENCE FAIR 2009.
Particle Physics J4 Leptons and the standard model.
READING A PAPER. Basic Parts of a Research Paper 1. Abstract 2. Introduction to Technology (background) 3. Tools & techniques/Methods used in current.
Motion.
Physics for Scientists and Engineers, 6e Chapter 46 - Particle Physics and Cosmology.
Group 2.  Students in grade 12 or 1 st year university (depends on the country and the program)  Prerequisite knowledge:  Electric and magnetic fields.
Photo of Particles Interacting within a Bubble Chamber Fermilab bubble chamber: 4.6 m in diameter in a 3 T magnetic field How does a bubble chamber work.
 Scientific Models. Models “Scienti fi c models are created to explain observations. Good models provide clear explanations for all known data and make.
Identifying strange particles & determining their properties in the ATLAS experiment People.
What do physical scientists study to learn about the world?
The BTeV Project at Fermilab Talk to DOE/Fermi Group Jan. 11, 2001 Introduction – Joel Butler Tracking detectors – David Christian Particle Identification.
The Hidden Beauty of Bubble Chambers. Activity 1: What do you see? What questions would you like answered about this picture?
 A scientific theory is an explanation of observations or events that is based on knowledge gained from many observations and investigations.
Forensic Science: Fundamentals & Investigations, Chapter 1 1 x All rights Reserved South-Western / Cengage Learning © 2012, 2009.
Introductory Chemistry: A Foundation, 6 th Ed. Introductory Chemistry, 6 th Ed. Basic Chemistry, 6 th Ed. by Steven S. Zumdahl & Donald J. DeCoste University.
Masterclass Introduction to hands-on Exercise Aim of the exercise  Identify electrons (e), muons (  ), neutrinos( ) in the ATLAS detector  Types.
7 July 2009Neil Collins : University of Birmingham1 MINERVA (Workshop)
Welcome to Physics--Jump in!
ATLAS Z-Path Masterclass It’s the dawn of an exciting age of new discovery in particle physics! At CERN, the LHC and its experiments are tuning.
Forensic Science: Fundamentals & Investigations, Chapter 1 1 x All rights Reserved South-Western / Cengage Learning © 2012, 2009.
1-2: Scientific Inquiry What role do models, theories, and laws play in scientific investigation?
Masterclass 2011 MINERVA Masterclass ‘Discover the Cosmos’ Teachers’ Workshop 29 th February 2012 Hardeep Bansil.
The DONuT Experiment Observations of the Tau Neutrino Presentation by Suzanne Nichols.
Cascade production – preliminary results Cascades  and  are reconstructed in decay chain   and  K, respectively. Plots in the first row show mass.
Particle Physics Why do we build particle accelerators? The surface is flat Still flat Oh no its not Big balls cannot detect small bumps.
Higgs in the Large Hadron Collider Joe Mitchell Advisor: Dr. Chung Kao.
W. Riegler/CERN History of Instrumentation ↔ History of Particle Physics The ‘Real’ World of Particles Interaction of Particles with Matter Tracking Detectors,
W. Riegler/CERN History of Instrumentation ↔ History of Particle Physics The ‘Real’ World of Particles Interaction of Particles with Matter Tracking Detectors,
Primary Science with €Sense Pack CMA, The Netherlands Technology Enhanced Primary Science.
Solar Magnetic Fields. Capacitors in Circuits Charge takes time to move through wire  V is felt at the speed of light, however Change in potential across.
x All rights Reserved South-Western / Cengage Learning © 2012, 2009
High Energy Particle Physics
What is Physical Science?
x All rights Reserved South-Western / Cengage Learning © 2012, 2009
Lecture 18 - Detectors Detector systems
Science 8--Nature of Science—Scientific Problem Solving
Introduction to hands-on Exercise
Lynne Long, University of Birmingham, UK
Data Analysis in Particle Physics
Chapter 1 Sections 2,3 Pages
x All rights Reserved South-Western / Cengage Learning © 2012, 2009
x All rights Reserved South-Western / Cengage Learning © 2012, 2009
3 color pictures that represent you (glue Periodic Table here)
Adapted by Meryl Probst
x All rights Reserved South-Western / Cengage Learning © 2012, 2009
THE NATURE OF SCIENCE.
Pick up a handout and take out a pen or pencil to take notes with.
Exercises Using Bubble Chamber Photographs
Real Life I BUBBLES! ICECREAM theory.
High-pT Identified Charged Hadrons in √sNN = 200 GeV Au+Au Collisions
BC Science Connections 10
Identified Charged Hadron Production at High pT
Bubble Chamber Detective Part II
Science Practices Science Practices Engineering Practices
x All rights Reserved South-Western / Cengage Learning © 2012, 2009
x All rights Reserved South-Western / Cengage Learning © 2012, 2009
Poster Title Introduction Risks and ethical considerations Results
Suggested Layout ** Designed to be printed on A3 paper in an assortment of colours. This is directly linked to the Computer Science Specification.
Presentation transcript:

Bubble Chamber Website Shane, Per, Peter, Szilvia, Luminita, Inger and Claude.

Outline of B.C. Presentation Introductions, motivations – Shane Improvements in tutorial – Inger Example exercises – Luminita/Per FAQs/Lessons – Peter Gallery improvements – Claude/Szilvia Summary – Shane

“Catchy” Questions Interested in “seeing” the invisible? Want your students to make their own observations and analyses, much like a scientist? Want to know more about what is happening in modern physics research? …Then studying bubble chamber pictures is for you (and your students)!

Review/Apply Concepts Conservation of energy Conservation of momentum Conservation of charge Behavior of charged particles in a magnetic field

Practice Various Skills Pattern recognition—noticing patterns and deciding what events are “interesting” Problem solving in physics, potentially using limited – non-intimidating – mathematics

The Tutorial Minor improvements: Fixed broken links. Corrected mistakes. Major improvements: Table. Momentum and energy conservation. Conservation of charge, baryon number and strangeness.Conservation of charge, baryon number and strangeness. Exercises.

Exercise 2 Random order of question Exercise 2

Exercise 2, events No electron spiral Vee pointing to a kink Two kinks Symmetric vee

Bubble Chamber Track Activity Worksheet Bubble Chamber Student Analysis.

Objective Develop a “template” that you can use with your students to evaluate any of the bubble chamber pictures.

Required Materials Print out of bubble chamber photograph Ruler Coloured pens

Required Background Conservation of Charge Conservation of Energy Conservation of Momentum Left Hand/Right Hand Rule

Layout Modular Format Recreating the crime scene/ Scientific Method

Investigating the Crime Scene Looking for evidence → high lighting it! Evaluating the evidence Reconstructing the crime scene

Reconstructing the Crime Scene Measuring “event” time scales Applying Conservation of Energy Identifying daughter particles of decays Identifying properties of the interaction particle

FAQ Presents Bubble Chamber FAQ for Teachers and Students

Motivation With an active website, there is now a need for a FAQ section. For points where you (teacher) or students may get stuck in the tutorial.

Example FAQ’S How do I distinguish between a decay and a collision? How can I determine the direction of the magnetic field if there is no knock-on electron? What is the sequence of particle identification?

Future Plans Create the links between the Bubble Chamber Tutorial and the FAQ’s.

Review We now have a “tool” for our educational “tool box” for addressing the following: Interested in “seeing” the invisible? Want your students to make their own observations and analyses, much like a scientist? Want to know more about what is happening in modern physics research?