WITHOUT KRISTALBOND. TIME: 2:00-4:00pm 36˚ C ±2˚ Outdoor temperature 40 ˚ C ±2˚ Room temperature 37 ˚ C ±2˚ Glass temperature Wind can’t help much to.

Slides:



Advertisements
Similar presentations
Heat and Air Temperature
Advertisements

By Meghan Burton Period 3 June 12, 2006
Contents: Cover
Air Conditioning System
Air Conditioners. Introductory Question If you operate a window air conditioner on a table in the middle of a room, the average temperature in the room.
Introduction: Transfer of Heat
WIND BY:AVA,JACK.B,KENDRA,EDWARD!!!!!.  Wind is moving air. We can use the energy in wind to do work.  In the Netherlands, people used windmills to.
HVAC: heating, ventilating, and air conditioning this is a thermostat: it sends signals to the heating/cooling system.
22.2 Solar Energy and the Atmosphere. What happens to incoming solar radiation? 1.Scattered 2.Reflected 3.Absorbed.
How Can Heat be Transferred?. Temperature and Heat What measures the temperature of matter? –Thermometer Temperature of matter is caused by particles.
How does Heat Energy transfer from one substance to another?
Air Conditioning. Definition: Any treatment of the environment air within a building is air conditioning. Air cooling is any process that reduces air.
Solar Energy Solar energy is the source of most of Earth’s heat on land, in the oceans and in the atmosphere. When solar energy interacts with air, soil.
Solar Energy and Heating the Atmosphere. Radiation Energy comes from the sun as radiant energy Radiation from the Sun can be visible (light) or invisible.
Walls. Apply knowledge of thermal mass and insulation with passive design strategies to reduce the energy needed by active systems.
Thermal Energy Chapter 14. Key Ideas  What does temperature have to do with energy?  What makes things feel hot or cold?  What affects the rate that.
10 Energy Saving Advices. 1- Lowering of the temperature at night Limit the lowering of the temperature at night. If the temperature is reduced too much,
Solar Radiation And it’s General Applications Nitin Jayswal.
Investigations 3 & 4: Solar Water Heaters Solar Houses
Zero Energy Homes Speaker: Baha Alawi. What is a Zero Energy Home? An energy efficient home that uses renewable energy from the sun to produce as much.
FACTORS THAT INFLUENCE TEMPERATURE
Weather Intro Weather Weather is caused by the unequal heating of the surface of the planet. This occurs in two ways.
Heat Transfer Heat is another word for thermal energy.
Atmospheric Heating.
Transfer of Energy
What’s the difference??? Heat is energy that is transferred from one object to another due to differences in temperature (hot  cold) Temperature is a.
Energy & Environment. Concentrating the sun rays Converting the light energy into heat energy Trapping heat Using certain materials for their beneficial.
Renewable or Nonrenewable ENERGY. ALTERNATIVE ENERGY Our Way to the Future.
Heat Migration in the Home 1 Energy Analysis and Comfort Solutions, Inc. Understanding Heat Migration in Your Home.
BASIC PRINCIPLES OF HEAT & COLD. How the Body Produces Heat All food & drinks contain Calories A Calorie is the heat value of food Calories in the body.
Heat Transfer Chapter 2, Section 2 p How Heat is Transferred Heat: the energy transferred from a hotter object to a cooler one.
The Role of Solar Energy (Earth’s Energy Budget) SOL 6.3.
Sea & land breezes AS Geography.
Thermal Physics III Cooling Processes Refrigerators, air conditioners, and heat pumps are devices that make heat flow from cold to hot. This is called.
INTRODUCTION TO HEAT LOAD HEAT LOAD12 3 TOPICS COVERED INTRODUCTION DESIGN CONSIDERATIONS DEFINITIONS/CONCE PT/FORMULA THE FORM LOAD COMPONENTS –External.
Chapter 2 Weather Factors Section 2 Heat Transfer.
Solar Energy Heat and Light. Energy Can take many different forms –____________ –Heat –____________.
 On average, home heating uses more energy than any other system in a home  About 45% of total energy use  More than half of homes use natural gas.
Renewable sources of energy
Heat and Work.  Thermodynamics looks at how changes in energy, work and the flow of heat influence each other.
Thermal Radiation Done By: Nujood Al-hashar Abrar Al-haddabi
ASSIGNMENT. Luanda, Angola Latitude: 8° 50' 18 S Longitude: 13° 14' 4 E.
Your Inspection Business Name Goes Here. Your contact information goes here.
A Form of energy that is related to the K.E. of molecules. The motion of molecules produces heat. The more motion, the more heat is generated.
BY : SEANN AND JOHN A. WHAT IS SOLAR ENERGY ? Solar power is energy from the sun and without it presence all life on earth would end. Solar energy has.
Essential Question: How and where do the 5 types of fog form?
Solar Power. How its produced Solar energy comes from the rays of the sun, once it reaches the earth it can be converted into other types of energy. With.
Energy Conservation. Payback Period The amount of time a consumer must use a system before beginning to benefit from the energy savings because of the.
Greenhouse Management.  List the different types of heating systems used in a greenhouse.  Describe the advantages and disadvantages of each type of.
How is Thermal Energy Used? Danielle Ruff CES 3rd Grade.
Heat Transfer Unit 3 Lesson 1 Pages Unit 3 Lesson 1 Pages
Chapter 3.4 Notes Thermal Rates.  The amount of heat that is transferred per unit time is the heat flow rate  Equation for heat flow rate = heat / time.
3.2 Notes Heat. 3.2 Notes What is heat? What is heat? -The transfer of energy between objects of different temperatures -Heat transfers from hot to cold.
CHAPTER 19 HEAT TRANSFER IN THE ATMOSPHERE. WHAT IS THE ATMOSPHERE? Earth’s atmosphere is heated by the transfer of energy from the sun. Some heat comes.
Automotive Air Conditioners
High boiler output is only required on a few coldest days of the heating season. Most days even comfort could be provided with reduced energy expense.
SOLAR Energy – It’s uses and How the Systems Work
Passive Solar Design Elements
Passive Solar Energy By: David Jung.
3.2 Notes Heat.
Section 3: Using Thermal Energy
Notes 7: Using Heat Chapter 6 Section 3 Page 172.
II)Convection in the Mantle
Sea & land breezes AS Geography.
Air Pressure.
Section 2 Atmospheric Heating.
Thermal Equilibrium Conduction Convection Radiation
Begin working on the winds worksheet from the quiz day.
What Causes Weather?.
The Sun is the source of energy for the Earth.
Presentation transcript:

WITHOUT KRISTALBOND

TIME: 2:00-4:00pm 36˚ C ±2˚ Outdoor temperature 40 ˚ C ±2˚ Room temperature 37 ˚ C ±2˚ Glass temperature Wind can’t help much to cool down the temperature indoor Solar energy is absorbed by indoor furniture, making them become a heat source or hot spot. These hotspots re-radiate far infra-red (heat) back into the room, increasing the room’s temperature (like a heater).

Direct solar energy (sun rays) exposure causes discomfort to tenants / patrons. Building operator have to lower air conditioner temperature for better comfort. As a result: High electricity consumption from increased air- conditioner’s loading Imbalanced room temperature – people in areas without direct exposure to the Sun may feel cold.

TIME: After Sunset Re-radiation 36˚ C ±2˚ Outdoor temperature 40 ˚ C ±2˚ Room temperature 37 ˚ C ±2˚ Glass temperature Wind can’t help much to cool down the indoor temperature After the sun sets, the hotspots continue to re-radiate heat that had built up during the day. It takes hours for the furniture to cool down as it releases heat at a slow rate.

As a result: The combination of hotspots releasing heat at the same time further impedes the cooling down process.

WITH

2% Re-radiation 6% Re-radiation Glass temperature 36˚ C ±2˚ Outdoor temperature 49 ˚ C ±2˚ Glass temperature Wind carries energy from glass surface outdoor, cooling it down faster. TIME: 2:00-4:00pm With KristalBond, majority of solar energy is stopped at the glass, instead of allowing it into the indoor. As a result, much less hot spots creased compare to non coated glass. There is no need to lower the air conditioner temperature as ALL tenants /patrons are comfortable regardless of their location, since much less direct solar energy exposure. 34 ˚ C ±2˚ Room temperature

As a result: Reduced electricity consumption from low air- conditioner loading. Uniformed air temperature indoor, bringing better comfort level to ALL occupants.

TIME: Sunset 2% Re-radiation6% Re-radiation Glass temperature 36˚ C ±2˚ Outdoor temperature 34 ˚ C ±2˚ Room temperature 49 ˚ C ±2˚ Glass temperature Wind carries energy from glass surface outdoor, cooling it down faster. With KristalBond, more solar energy is absorbed by the glass, not by the furniture indoor. The glass surface is exposed to the exterior where wind accelerates the release of the absorbed heat as much as 3 times* more than the interior surface (*according to ISO9050.)

As a result: Once the Sun no longer shines directly against the glass panel (depends on each building’s orientation), the air conditioner consumes less electricity to regulate the temperature, since there is less heat source or hotspots.