Ch 24 3 solar energy & wind
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The document discusses different sources of renewable energy and atmospheric winds. It explains that solar energy comes from the sun and can be reflected, absorbed by the atmosphere or Earth's surface. Energy is transferred through radiation, convection and conduction. Winds are caused by differences in air pressure and temperature, and include local sea and land breezes as well as global winds like prevailing winds and monsoons, which are large-scale variations of land and sea breezes between seasons.
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- Meteorology is the study of weather and atmospheric conditions.
- Once emitted, pollutants are transported and dispersed by meteorological conditions such as wind speed, direction, and atmospheric stability. They can then be deposited or concentrated in different areas.
- Mathematical models use emission data and meteorological conditions to predict how pollutant concentrations will disperse and change over a region.
Ch.19 Notes Mc Neely 2009
1. Air pressure is caused by the weight of air above exerting pressure in all directions, and differences in air pressure cause wind as air moves from high to low pressure areas.
2. Global wind patterns are caused by uneven heating of the Earth's surface by the sun, which causes large scale rising and sinking of air and the formation of circulation cells.
3. Local winds like sea breezes and valley winds are caused by smaller scale differences in air pressure caused by uneven heating of land and water areas.
EVS-1-Global climate.pptx
This document provides an introduction to global climate and climatology. It defines climate and weather, and discusses the major elements and factors that influence climate, including the sun, earth's tilt, and human activities. The three main climatic zones are described as tropical, temperate, and polar. Key differences between weather and climate are outlined. The document also examines various global climatic factors such as solar radiation, earth's rotation, winds, and precipitation.
Weather and Climate.ppt
The document discusses the differences between weather and climate. Weather is the short-term conditions in a localized area, while climate describes average conditions over a long period of time in a large area. The Earth's tilt and rotation, along with factors like latitude, altitude, proximity to water, and wind and ocean currents, influence weather and climate patterns around the world by affecting temperature and precipitation. Together these factors create different climate zones with varying characteristics.
Ecuador Biome
1. The document discusses how geographic variations in climate are caused by Earth intercepting solar radiation. Solar radiation heats the atmosphere unevenly, causing air masses to circulate globally in convection cells and ocean currents.
2. Temperature decreases with increasing altitude due to decreasing atmospheric pressure and adiabatic cooling. Seasonal changes in solar radiation intercepted at different latitudes are caused by Earth's tilt and yearly orbit around the sun.
3. Moisture content of air is influenced by temperature, with warmer air holding more water vapor. Evaporation and condensation regulate how much water is in the gas phase.
Climatology
This document discusses factors that affect global climate, including solar radiation, the tilt of the Earth's axis, winds, and topography. Solar radiation drives the greenhouse effect and impacts weather patterns. The Earth's tilted axis causes seasons as different hemispheres tilt toward or away from the Sun. Winds are formed by temperature contrasts and deflected by the Coriolis effect, shaping prevailing wind patterns that influence regional climates by transporting moisture. Mountains also impact local climates through their effects on temperature, winds, and rainfall distribution.
Weather and Climate
This document defines weather and climate concepts. It explains that weather refers to current atmospheric conditions like temperature, precipitation, wind and other factors at a specific place and time. Climate is the long term pattern of weather for an area. The document outlines key elements that impact weather such as solar radiation, insolation, atmospheric pressure, humidity, precipitation forms, wind types and clouds. It also describes common weather instruments used to measure these conditions.
Ch 19 v2
1. The highest recorded wind speed occurred in Mount Washington, New Hampshire in 1934 at 372 km/h.
2. Air pressure is the force exerted by the weight of air above and is measured using a barometer. It affects wind, temperature, humidity and weather forecasting.
3. Differences in air pressure cause wind, with air flowing from high to low pressure areas. The rotation of the Earth causes the Coriolis effect which deflects winds right in the Northern Hemisphere.
Similar to Ch 24 3 solar energy & wind (20)
More from robtownsend
24 1 the atmosphere
The atmosphere is composed primarily of nitrogen, oxygen, and other gases that surround the Earth. It protects the Earth from harmful rays from the sun while trapping heat, and provides conditions suitable for life. The atmosphere consists of four main layers - the troposphere, stratosphere, mesosphere, and thermosphere - with decreasing air pressure and density at higher altitudes. The stratosphere contains the ozone layer which absorbs UV rays.
Ch 18 5 sources of light
There are several sources of light described in the document. Incandescent light bulbs produce light as electrons flow through a heated filament. Fluorescent lights emit light by causing a phosphor to emit photons through a series of collisions that change wavelengths into visible light. Laser light is a beam of coherent light emitted when excited atoms release photons; it maintains a constant intensity. Sodium-vapor lights ionize gas mixtures in a bulb, causing sodium to emit light as electrons move between energy levels upon heating.
Ch 18 4 colors
White light separates into colors when passing through a prism due to different wavelengths refracting at different angles, called dispersion. An object's color depends on both its composition and the color of light illuminating it. Primary colors are red, green, and blue, which when mixed in different amounts can create all other colors. Secondary colors are cyan, yellow, and magenta, which are combinations of two primary colors. Complimentary colors of light combine to form white light. Primary pigment colors are cyan, yellow, and magenta.
Ch 18 2 electromagnetic spectrum
The electromagnetic spectrum includes various types of waves ranging from radio waves to gamma rays. Radio waves are used for radio, television, radar, and microwaves, which can be used to cook food. The electromagnetic spectrum also includes infrared rays, visible light, ultraviolet rays, X-rays, and gamma rays, each with their own characteristics and applications such as medicine, agriculture, imaging internal structures, and cancer treatment.
Ch 18 1 electromagnetic waves
Electromagnetic waves consist of changing electric and magnetic fields that can travel through matter or empty space, transferring energy. They are produced when electric charges vibrate or accelerate and all travel at the same speed in a vacuum, as measured by Michelson. While wavelength and frequency vary inversely, electromagnetic radiation behaves both as waves and particles, with intensity decreasing with distance from the source as photons disperse.
15.1 notes
The document discusses different forms of energy including kinetic energy, which depends on an object's mass and speed, and potential energy, which can be gravitational or elastic. It provides examples of calculating kinetic energy for a flying bird and gravitational potential energy for a diver. The document also categorizes the main forms of energy as mechanical, thermal, chemical, electrical, electromagnetic, and nuclear, and notes that nuclear power plants use nuclear energy to generate electricity by splitting atoms to heat water and spin turbines.
11 3 acceleration section
Acceleration is defined as a change in an object's speed or direction over a period of time. It can be calculated by taking the change in velocity (final velocity minus initial velocity) divided by the time taken. Acceleration is measured in meters per second squared. Slowing down is considered deceleration or negative acceleration. Constant acceleration results in a steady change in velocity at the same rate over time and is represented by a straight line on a graph where the slope equals the acceleration.
3.1 notes
The document discusses the differences between solids, liquids, and gases. Solids have a definite shape and volume, do not compress, and do not assume the shape of their container. Liquids have no definite shape but a definite volume, cannot be compressed, and assume the shape of their container. Gases have no definite shape or volume, can be compressed, and assume the shape of their container. The kinetic theory states that particles in all matter are in constant motion and the behavior of gases is due to the fast, random motion of particles which overcome attractive forces between them.
2.2 notes
Physical properties are characteristics that can be observed or measured without changing a substance's composition, and include viscosity, conductivity, malleability, hardness, melting point, boiling point, and density. These properties can be used to identify materials, determine which are best for specific uses, and separate mixtures through processes like filtration and distillation.
2.1 notes
This document classifies matter as either pure substances or mixtures. Pure substances are uniform throughout and can be elements, which contain only one type of atom, or compounds, which contain two or more elements joined together. Mixtures are not uniform and can be either heterogeneous, with noticeably different parts, or homogeneous, with evenly distributed parts. Mixtures are further classified as solutions, suspensions, or colloids based on the size of particles in the mixture.
2.2 notes
Physical properties are characteristics that can be observed or measured without changing the composition of a substance. Some key physical properties include viscosity, conductivity, malleability, hardness, melting point, boiling point, and density. Physical properties can be used to identify materials, determine which are best suited for specific uses, and separate mixtures using techniques like filtration and distillation.
1.2 notes
The document outlines the scientific method which involves making observations, conducting research to form a hypothesis, testing the hypothesis through controlled experiments and data collection, drawing a conclusion, and potentially developing a new theory. It also discusses key aspects of the scientific method including forming testable hypotheses with manipulated and responding variables, controlling outside factors, revising hypotheses not supported by evidence, and how scientific laws summarize patterns in nature while theories aim to explain them. Scientific models are also mentioned as tools to visualize complex concepts.
How to make a good graph
To make a good graph, include a title, labels for the axes, and consistent scales. The x-axis should include the independent variable like time, while the y-axis includes the dependent variable measured. Data points can be connected with a smooth curve to show patterns, and less ink allows easier readability. Key details like calculations or uncertainties should be indicated on the graph as needed.
1.4 notes
Scientists use various visual formats like tables, line graphs, bar graphs, and circle graphs to organize and present data. Tables relate variables and display values in rows and columns. Line graphs show changes over time or between variables with slope indicating relationships. Bar graphs compare measurements, while circle graphs illustrate proportions of a whole.
1.3 notes
Scientific notation and SI units are used in measurement to help scientists communicate measurements clearly across countries. The basic SI units include meters, kilograms, seconds, amperes, moles, candelas, and kelvins. Derived units are calculated from the basic units, such as newtons from kilograms and meters/seconds. SI prefixes modify the scale of units, from centi to giga. The precision of calculations is limited by the measurement with the fewest significant figures. Temperature in kelvins is calculated by adding 273 to degrees Celsius.
1.2 notes
The document outlines the scientific method which involves making observations, conducting research to form a hypothesis, testing the hypothesis through controlled experiments and data collection, drawing a conclusion, and potentially developing a new theory. It also discusses key aspects of the scientific method including forming testable hypotheses with manipulated and responding variables, controlling outside factors, revising hypotheses not supported by evidence, and how scientific laws summarize patterns in nature while theories aim to explain them and cannot be proven. Scientific models are also mentioned as helping visualize complex concepts.
Ch 1 1 notes
Science begins with curiosity and uses methods to discover knowledge. It includes natural sciences like physical science, chemistry, physics, earth and space science, as well as life sciences concerning living things. Physical science covers big ideas like space and time, matter and change, forces and motion, and energy.
Ch 26-1 The sun
The document summarizes key aspects of energy from the sun and its atmospheric features. The sun's energy comes from nuclear fusion reactions in its core that convert hydrogen into helium. This outward pressure is balanced by the sun's inward gravitational force, maintaining stability. The sun's atmosphere has three layers - the visible photosphere, the middle chromosphere, and the outer corona containing hot gases that flow out as solar winds. Sunspots, prominences, and solar flares are prominent atmospheric features.
Groups of stars 26.4
Star systems consist of two or more stars held together by gravity, with over half of all stars existing in systems. Star clusters form when stars are born together in the same nebula, allowing their ages to be determined. The three types of star clusters are open clusters, associations, and globular clusters. Galaxies are classified into four main categories: spiral, barred-spiral, elliptical, and irregular galaxies, which can be distinguished by their shapes, presence of spiral arms, and stages of star formation.
Evolution of a star 26 3
Stars form from dense regions in nebulae where dust and gases heat up and contract to form a protostar with enough mass for nuclear fusion to begin. Most stars will spend around 90% of their life as a main sequence star stably fusing hydrogen into helium. A star's mass determines its place on the main sequence, with smaller, cooler red stars living the longest. Lower mass stars eventually become white dwarfs as their cores grow without outward pressure, while higher mass stars explode as supernovae, leaving behind neutron stars or black holes if the core is massive enough for its surface gravity to trap even light.
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- 1. Solar Energy & Wind 24.3
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