This document examines energy consumption. The reading will explore energy consumption or energy usage in the United States and discuss specific topics such as (1) Who uses energy?, (2) Homes and commerce, (3) Heating and Cooling, (4) Lighting, (5) Appliances, (6) Appliance efficiency ratings, (7) Payback period, (8) Industrial sector, (9) Petroleum refining, (10) Steel manufacturing, (11) Aluminum Manufacturing, (12) Paper manufacturing, (13) Chemical Manufacturing, (14) Cement Manufacturing, (
Light, Matter, and Energy
This fun Web site is part of OLogy, where kids can collect virtual trading cards and create projects with them. Here, they are introduced to Einstein's life and work with four engaging and kid-friendly areas. Equation Invasion, a look at the world's most famous equation about the relationship between energy and mass. Web Master, the scientists whose ideas and discoveries shaped Einstein's career. Light the Way, an introduction to "the fastest thing in the universe" and the waves it travels in. E
Mass Wasting/Landslide Animations
This site features Flash animations, MPEG simulations, and Real Media video clips that illustrate subsurface processes and consequences of mass wasting and landslide movement. Visualizations of slumps, flows, falls, and translational and rotational slides show bedrock failure and displacement and subsequent building damage and scarp, flowage zone, and toe formation. These resources portray a variety of modeled and real environments and are suitable for use in lectures, labs, or other teaching ac
Mass Destruction: Truth and Consequences with Hans Blix and Christiane Amanpour
This on-stage conversation with former U.N. weapons inspector Hans Blix, in conversation with CNN correspondent Christiane Amanpour. This event took place on Wednesday, March 17, 2004 in Zellerbach Auditorium, UC Berkeley. For more information, visit the Graduate School of Journalism's event website. Sponsored by: The UCB Graduate School of Journalism, The Goldman Forum on the Press & Foreign Affairs, the Human Rights Center, The Office of the Chancellor and the Open Society Institute. Co-Sp
Dr. Helen Caldicott: The New Nuclear Danger
The New Nuclear Danger: George W. Bush's Military-Industrial Complex Dr. Helen Caldicott Founder of Physicians for social Responsibility Nominee for the Nobel Peace Prize Founder of Nuclear Policy Research Institute This event took place on April 24, 2003 in the Chevron Auditorium, International House, UC Berkeley. Addressing her new book by the same name, world-renowned antinuclear activist Dr. Caldicott looks at the indebtedness of the current Bush administration to the nuclear arms industr
America In the Second Nuclear Age
The Goldman Forum on the Press & Foreign Affairs and UC Berkeley's Graduate School of Journalism present: America In the Second Nuclear Age The live event took place on April 30, 2003 in Sibley Auditorium, UC Berkeley. A conversation with: Jonathan Schell Author and Fellow at The Nation Institute and Senior Fellow at the Center for Globalization at Yale University Frances FitzGerald Author of Fire In The Lake and Way Out There In The Blue Michael Nacht Dean, Goldman School of Public Policy;
Gravimetric Soil Moisture Protocols
The purpose of this resource is to measure soil water content by mass. Students collect soil samples with a trowel or auger and weigh them, dry them, and then weigh them again. The soil water content is determined by calculating the difference between the wet sample mass and the dry sample mass.
Soil Particle Density Protocol
The purpose of this resource is to measure the soil particle density of each horizon in a soil profile. Students weigh a sample of dry, sieved soil from a horizon, mix it with distilled water and then boil the mixture to remove any air. The mixture cools for a day and then students add water until the volume of the mixture is 100 mL. Students measure the temperature and mass of the final mixture and use the Soil Particle Density Data Sheet to calculate the soil particle density. Three samples sh
GEOLogic: The Big Five Mass Extinctions
GEOLogic questions are puzzles that were developed to support students understanding of geoscience concepts while challenging them to develop better logic and problem solving skills. In this exercise, students are asked to match up the five largest mass extinction events with their relative dates, approximate duration, and severity (percentage of species that became extinct) based on clues given from various perspectives. This activity is appropriate for a high school science class or an introdu
Continental Crust Mass Balance Calculation
This problem set is designed for a junior/senior level course and addresses several quantitative skills that are important in geochemistry and petrology. The exercise uses geochemical data for average quartz monzonite and diorite from the Mineral Mountains in Utah. The students do mass balance calculations and are asked to relate their calculations to continental crust formation. The activity was peer reviewed by participants at the 2004 Teaching Quantitative Skills in a Geoscience Context Works
Masses & Springs
A realistic mass and spring laboratory. Hang masses from springs and adjust the spring stiffness and damping. You can even slow time. Transport the lab to different planets. A chart shows the kinetic, potential, and thermal energy for each spring.
This site helps students answer questions about dinosaurs: What makes a dinosaur a dinosaur? Where did they live? What caused their mass extinction? Students can participate in a virtual dinosaur discovery, follow milestones in dinosaur evolution, and see behind-the-scenes slide-shows of the lab environment where vertebrate specimens are prepared for exhibits and research.
Inelastic Collision of Particles with Structure Model
The EJS Inelastic Collision of Particles with Structure model displays the inelastic collision between two equal "particles" with structure on a smooth horizontal surface. Each particle has two microscopic elements which interact through a massless spring of stiffness k and natural length L. The mass of one of the microscopic elements and the spring length of the connector spring can be changed via textboxes. You can modify this simulation if you have EJS installed by right-clicking within the p
Anisotropic Oscillator Model
The EJS Anisotropic Oscillator model displays the dynamics of a mass connected to two opposing springs. The simulation displays the motion of the mass as well as the trajectory plot. The initial position of the mass can be changed by dragging. The unstretched lengths of the springs can changed as well via textboxes.
Baton Throw Model
The EJS Baton Throw model displays a baton thrown up in the air about its center of mass. The baton is modeled by two masses separated by massless rigid rod. The path of the center of mass of the baton and the red mass are shown in black and red, respectively. The ratio of the two masses can be set via a slider and the initial velocity of the center of mass of the baton and the rotational velocity of the baton can be set via text boxes.
Spring Pendulum Model
The EJS Spring Pendulum model displays the model of a hollow mass that moves along a rigid rod that is also connected to a spring. The mass, therefore, undergoes a combination of spring and pendulum oscillations. The initial position and velocities, as well as the spring constant can be changed via textboxes.
Pendulum on an Accelerating Train Model
The EJS Pendulum on an Accelerating Train model displays the model of a pendulum on an accelerating train. The problem assumes that the pendulum rod is rigid and massless and of length, L = 2, and the pendulum bob is of mass, m = 1. The initial pendulum angle and the initial velocity of the train can be changed via textboxes, and the acceleration of the train can be changed via a slider.
Lennard-Jones Potential Model
The EJS Lennard-Jones Potential model shows the dynamics of a particle of mass m within this potential. You can drag particle to change its position and you can drag the energy-line to change its total energy. The Lennard-Jones potential function is a reasonably accurate model of interactions between noble gas atoms. The binding energy epsilon is the depth of the potential well and minimum molecular separation are set equal to unity. This simulation uses uses a natural system of units the m
Modeling a Changing World
Modeling a Changing World written by mathematics professor Tim Chartier and his student Nick Dovidio presents curricular material in an OSP Launcher package to motivate the need for numerically solving ordinary differential equations. The package discusses such applications as a mass-spring system and its connection to computer simulation for movies. An interactive model that simulates a two-body gravitational model of the moon and earth allows for exploring the topic of numerical error. Other m
Body With Thruster Model
The Body with Thruster Model shows the motion of a disk with an attached rocket engine. You can drag the engine to change its distance from the center of the disk and you can adjust the thrust of the rocket engine using sliders. The mass of the rocket and its connecting rod are assumed to be negligible. The trajectory of this single-body model is intuitively challenging and difficult to visualize.