Skip to main content

The beautiful TAAL LAKE CRATER

The breathtaking scenery at Taal Lake, on the Philippine island of Luzon, makes it one of the country’s most popular tourist destinations. Located just thirty miles from Manila, Taal is the Philippines’ equivalent to Oregon’s famous Crater Lake, because it fills the caldera of a massive prehistoric volcano. But its geologic history is even more bizarre than that of its Oregonian cousin.


  • Unlike Crater Lake, Taal Lake was once part of the ocean—it was an arm of Balayan Bay, which opens to the South China Sea. It’s not unheard of for bays to become lakes. After the last Ice Age, for example, it took centuries for the earth to rebound to its pre-glacier elevations in many places. Even Lake Ontario was part of the Atlantic Ocean for a while. But Taal Lake was part of the ocean just a few hundred years ago! During the 18th century, a series of eruptions filled in the entrance to the inlet, isolating it from the ocean except for one narrow river.
  • Rainfall over the past three hundred years has diluted the salinity of the lake water, but that was enough time for many of its fishy residents to adapt to the new surroundings. As a result, Taal Lake is home to some unique fauna, including one of the only two known species of sea snakes that can live in freshwater. Until it was hunted to extinction in the 1930s, a population of sharks even made its home in the lake!
  • The eruptions around Taal Lake didn’t stop in the 18th century. There were once many towns on the lake’s shore, but only three are inhabited today; the others lie in ruins due to violent eruptions that have killed more than 5,000 residents. An international volcanology group has named Taal one of its sixteen “Decade Volcanoes,” an initiative designed to study the world’s largest, most active, and most destructive volcanic hotspots.
  • The peak’s current cone is an island rising out of the Lake Caldera, which is called Volcano Island. Even better, the smaller crater of Volcano Island has now also filled with rainwater. Main Crater Lake, as it’s called, is more than half a mile across, making it the world’s largest “double” lake: It’s a lake on an island on a lake on an island! (Locals sometimes claim that a rock outcropping in Main Crater Lake, called Vulcan Point, is the world’s largest “triple” island: an island in a lake on an island in a lake on an island. But as I learned last year, that’s just a Taal tale.)

How to Get There:
To get to Taal Volcano, one needs to hire a banca to cross the Taal Lake (be ready to get wet) from Talisay, Batangas. To go to Talisay, hire a tricycle or a jeepney from Tagaytay City, passing through a narrow zigzag road down to this town. There are regular jeepneys running all day from Tagaytay to Talisay and back (40min). Another option would be to go to Tanauan, Batangas, where you can catch a jeepney at the public market for the thirty-minute bumpy trip to Talisay (~P20.00/~$0.5). But public transport is sometimes difficult especially the return trip, so it is advisable to bring your own car or hire one for a roundtrip.
Most tourists prefer the Tagaytay route which is an hour and 15 minute drive from Manila (2 to 3 if traffic). You can go there via the South Luzon Expressway (SLEX) or via Coastal Road /Aguinaldo Highway. Via SLEX, take the Carmona Exit and drive down to Governor’s Drive and Silang up to the entrance of Tagaytay City. You can also take Sta. Rosa exit going to Tagaytay City. Via Coastal Road, drive south to Aguinaldo Highway passing through Bacoor, Imus, Dasmarinas and Silang Cavite.
For commuters, via Tagaytay catch a bus from Buendia/Pasay to Nasugbu or Balayan, these pass through Tagaytay City. Via Tanauan, take a bus from Pasay marked for Lemery, then get off in Tanauan, Batangas.

ENJOY .
TRAVEL WHILE YOU CAN

Comments

Popular posts from this blog

REACTOR FUEL ASSEMBLIES

Both boiling water reactor and pressurized water reactor fuel assemblies consist of the same major components.  These major components are the fuel rods, the spacer grids, and the upper and lower end fittings.  The fuel assembly drawing on page 1-11 shows these major components (pressurized water reactor fuel assembly). The fuel rods contain the ceramic fuel pellets.  The fuel rods are approximately 12 feet long and contain a space at the top for the collection of any gases that are produced by the fission process.  These rods are arranged in a square matrix ranging from 17 x 17 for pressurized water reactors to 8 x 8 for boiling water reactors. The spacer grids separate the individual rods with pieces of sprung metal.  This provides the rigidity of the assemblies and allows the coolant to flow freely up through the assemblies and around the fuel rods. Some spacer grids may have flow mixing vanes that are used to promote mixing of the coolant as it f...

The World and Nuclear Fission

Purely as a physical phenomenon nuclear fission offers ample scope for intellectual problem-solving. If it implied nothing further it could be left to those specialists who might find satisfaction in its intellectual challenge; the rest of us could busy ourselves with other more pressing concerns. Unfortunately, nuclear fission  - as everyone knows  - implies much more than abstruse mathematical argument and donnish hairsplitting. Almost from the time it was first recognized, in 1938, nuclear fission has implied not merely articles in learned journals but major decisions of public policy. The social, economic and political context of nuclear fission has been from the beginning an essential factor in its development; in turn, it has exerted an extraordinary range of social, economic and political influence. To foresee with any clarity the shape of the nuclear future, a historical perspective is imperative. It is necessary to know not only how nuclear fission occurs,...

HYDROELECTRIC PLANT

In a hydroelectric power plant, water, flowing from a higher level to a lower level, travels through the metal blades of a water turbine, causing the rotor of the electrical generator to spin and produce electricity. In a fossil-fueled power plant, heat, from the burning of coal, oil, or natural gas, converts (boils) water into steam (A), which is piped to the turbine (B).  In the turbine, the steam passes through the blades, which spins the electrical generator (C), resulting in a flow of electricity.  After leaving the turbine, the steam is converted (condensed) back into water in the condenser (D).  The water is then pumped (E) back to the boiler (F) to be reheated and converted back into steam.