NASA GOES SATELLITE

                        SE Kansas Visible (Animated)
                        SE Kansas Infrared (Animated)
                        SE Kansas Water Vapor (Animated)

                 NEXLAB SATELLITE

                 RAP--UCAR SATELLITE

RADAR AND SATELLITE
Doppler Radar National Mosaic
NEXRAD WEATHER RADAR REGIONAL SITES
NEXRAD WEATHER RADAR SINGLE SITES
Description Of NEXRAD Weather Radar (Taken From Wikipedia)

    NEXRAD or Nexrad (Next-Generation Radar) is a network of 158 high-resolution Doppler radars operated by the National Weather Service, an agency of the National Oceanic and Atmospheric Administration (NOAA) within the United States Department of Commerce. Its technical name is WSR-88D, which stands for Weather Surveillance Radar, 1988, Doppler.
    NEXRAD detects precipitation and atmospheric movement or wind. It returns data which when processed can be displayed in a mosaic map which shows patterns of precipitation and its movement. The radar system operates in two basic modes, selectable by the operator: a slow-scanning clear-air mode for analyzing air movements when there is little or no activity in the area, and a precipitation mode with a faster scan time for tracking active weather. NEXRAD has an increased emphasis on automation, including the use of algorithms and automated volume scans.  Weather radar tutorials can be found here and here

Click On Your Area On The Map Below, And You Will Be Taken To The Current NEXRAD National Weather Service Weather Radar Site
These Two Sites Will Also Give You Some Other Single Site NEXRAD Weather Radar Options
WEATHER SATELLITE IMAGES
Visible Weather Satellite Images

The satellite measures sunlight reflected by the clouds and surface of the earth. Water absorbs a lot of sunlight (it reflects just a little) so it appears dark. The percent of sunlight reflected by the land is called the surface albedo. The albedo of land ranges from about 10-30%, except for snow covered surfaces where the albedo is much higher. A cloud's albedo is generally high, but can vary with its thickness and composition. Thick clouds have high albedos and show up bright in the satellite image. Thin cirrus clouds have low albedos and are usually semi-transparent to sunlight. The structure of clouds in the satellite image can tell the meteorologist a lot about the weather and animations tell him about the movement of weather systems.
Infrared Weather Satellite Images

    The satellite also measures the temperature of the clouds and the surface of the Earth with an infrared sensor. This allows for the detection of changes in the temperature of clouds and that of the surface during the day and at night. Clouds are usually colder than the surface (land or water). The temperature of the clouds also indicates how tall they are since temperature is inversely proportional to height in the atmosphere.  With colorized infrared imagery, gray is relatively warm, blues cooler, red indicates clouds that are the coldest, tallest, and most likely to produce rain.
    The colder the cloud the more likely it is to produce rain. The temperature structure of clouds also tells the meteorologist how hard it may be raining and whether the storm may be producing severe weather. In the absence of clouds, the satellite measures the temperature of the surface, which could be land or ocean.
    The infrared image can also be used to monitor sea-surface temperature (SST). Since about 70% of the Earth is ocean, this allows the scientist to study how changes in SST (such as El Nino and La Nina) are related to global weather events (such as droughts, hurricanes, and floods).
Water Vapor Weather Satellite Images

    This satellite imagery represents a special kind of infrared measurement which measures the temperature of clouds and water vapor in a layer of the atmosphere about 6-10 km above the surface. At this altitude, steering currents such as jet streams control the movement of weather systems around the Earth. The water vapor imagery therefore captures these jet streams (elongated dark regions with adjacent clouds and bright regions), "dry" blocking high pressure systems (dark regions), and other weather systems (gray and bright white cloud patterns). By studying these features and tracking them over time, meteorologists can produce more accurate weather forecasts.