WeLcOmE tO mY bLoG...
- lynn
- san antonio, saipan, Northern Mariana Islands
- HaFa AdAi, my name is Lynette, but prefer to be called "LYNN". A student at Northern Marianas College, pursuing three degrees in three major fields of study. Elementary Education (BA), Criminal Justice (AA), and Liberal Arts (AA). Moreover, I am a happily married wife to my loving, supportive and hardworking husband, "Raymond". Whereas, I am also a loving and supportive mother to my two beautiful and outrageous daughters named "Raynalynn" and "Lynnaray". In life, I like to spend quality time with families and friends. I enjoy shopping and eating. I am a person who is very enthusiastic and mostly optimistic. I also enjoy helping others and meeting new people as well. Therefore, if you want to know more about me you can hit me up at lynnsablan@yahoo.com or search me on myspace, hehehe. AdIoS, ginen guahu.
Sunday, September 30, 2007
"Photosynthesis and Cellular Respiration"
This equation is essentially the opposite of photosynthesis. Photosynthesis is a building process, while respiration is a breaking-down process.
Photosynthesis produces food, stores energy, uses water and carbon dioxide, releases oxygen, and it usually occurs in sunlight. Whereas on the other hand, respiration uses food, releases energy, produces food and carbon dioxide, uses oxygen, and occurs both during night and light.
Thursday, September 27, 2007
Forum Chapter 14
Quetion #3. There are only a few reefs off the northeast coast of Brazil (see map in Fig. 14-11), even though it lies in the tropics. How would you explain this?
According to the text book corals can grow only in shallow water, where light can penetrate because the zooxanthellae on which they depend need light. Calcareous algae require sunlight as well. Particular types of corals and algae have different depths limits. Some can live in deep water and others can't. In addition, the book indicates that there are many corals that live in deep water and does not need sunlight, because they do not contain zooxanthellae or bulid massive reef structures.
Forums
Question #1. If bilateral symmetry were to evolve among cnidarians, in which group or groups would you expect it to occur? Why?
From reading the book, I will determine that a bilateral symmetry would evolve in a group of symmetrical worms. From the understanding of the book a biliteral symmetry is the arrangement of body parts in such a way that there is only one way to cut the body and get two identical halves. Therefore, a good example for a cnidarian group may be a flatworm. Flatworms are bilaterally symmetrical invertebrates typically flattened in appearance. They have true organs and organ systems, including a central nervous system. In addition, flatworms are symmetrical on both sides when cut in half.
Wednesday, September 26, 2007
Endangered Species of the Marianas
Virtual Lab Reports
· Question: What atoms are in sour foods?
· Hypothesis: Foods are sour when they have a highconcentration of loose hydrogen atoms.
· Procedures: Step 1: Make a numbered cup for each food bottle. Step 2: Add 5 drops of each food to itsnumbered cup. Step 3: Add 1 drop of dye to each cup. Step 4: Put cups in order, from high concentration tolow concentration of loose hydrogen atoms.
· Data: Each numbered cup had a different color when the dye was added.
Cup #1 was color green and contained orange juice.
Cup #2 was color dark green and contained milk.
Cup #3 was color light pink and contained lemonjuice.
Cup #4 was color yellow and contained vinegar.
Cup #5 was color blue and contained water.
· Results: Indicating from the most sour to the least sour food. Cup #3 lemonjuice. Followed by Cup #4 vinegar, Cup#1 orange juice, Cup #2 milk, and the last Cup #5 with water.
· Explanation: This hypothese is true. From the indication of the chemistry lab the most sour food which contained the lemon juice had the highest concentration of loose hydrogen atoms. Whereas, the least sour food which contained water, had the lowest concentration of loose hydrogen atoms.
Questions for thoughts
3.) Why is pH important in the ocean?· Because it is saturated with an important organic molecule for organisms like corals, crustaceans, and mollusks called calcium carbonate.
Holes in Bread Experiment
· Hypothesis: I think the holes in bread are formed when dryingredients are mixed with wet ingredients.
· Procedures: Step 1: Add three scoops of yeast to the tube. Step 2: Add three scoops of sugar to the tube. Step 3: Fill the tube with three fourths full with warm water. Step 4: Use a stick to stir the yeast and sugar into the water. Keep stirring until the water is the same color as the yeast. Step 5: Give it some time because the reaction in the tube may take time. Step 6: Shine a flashlight on the side of the tube.
· Data: When the yeast and sugar was mixed with the warm water, the water turned to be the same color as the yeast.
· Results: After the mixture of the yeast and sugar, together with the warm water, there were tiny bubbles streaming up the side of the tube.
Questions for thoughts
2.) How was the gas produced?· The feeding of the yeast onto the sugar molecules, created the breaking of the sugar molecules and new molecules, thereofe carbon dioxide gas molecule were produced.
Tuesday, September 25, 2007
Plant Cell Anatomy
ATP - ATP is short for adenosine triphosphate; it is a high-energy molecule used for energy storage by organisms. In plant cells, ATP is produced in the cristae of mitochondria and chloroplasts.
cell membrane - the thin layer of protein and fat that surrounds the cell, but is inside the cell wall. The cell membrane is semipermeable, allowing some substances to pass into the cell and blocking others.
cell wall - a thick, rigid membrane that surrounds a plant cell. This layer of cellulose fiber gives the cell most of its support and structure. The cell wall also bonds with other cell walls to form the structure of the plant.
centrosome - (also called the "microtubule organizing center") a small body located near the nucleus - it has a dense center and radiating tubules. The centrosomes is where microtubules are made. During cell division (mitosis), the centrosome divides and the two parts move to opposite sides of the dividing cell.
chlorophyll - chlorophyll is a molecule that can use light energy from sunlight to turn water and carbon dioxide gas into sugar and oxygen (this process is called photosynthesis). Chlorophyll is magnesium based and is usually green.
chloroplast - an elongated or disc-shaped organelle containing chlorophyll. Photosynthesis (in which energy from sunlight is converted into chemical energy - food) takes place in the chloroplasts.
christae - (singular crista) the multiply-folded inner membrane of a cell's mitochondrion that are finger-like projections. The walls of the cristae are the site of the cell's energy production (it is where ATP is generated).
cytoplasm - the jellylike material outside the cell nucleus in which the organelles are located.
Golgi body - (also called the golgi apparatus or golgi complex) a flattened, layered, sac-like organelle that looks like a stack of pancakes and is located near the nucleus. The golgi body packages proteins and carbohydrates into membrane-bound vesicles for "export" from the cell.
granum - (plural grana) A stack of thylakoid disks within the chloroplast is called a granum.
mitochondrion - spherical to rod-shaped organelles with a double membrane. The inner membrane is infolded many times, forming a series of projections (called cristae). The mitochondrion converts the energy stored in glucose into ATP (adenosine triphosphate) for the cell.
nuclear membrane - the membrane that surrounds the nucleus.
nucleolus - an organelle within the nucleus - it is where ribosomal RNA is produced.
nucleus - spherical body containing many organelles, including the nucleolus. The nucleus controls many of the functions of the cell (by controlling protein synthesis) and contains DNA (in chromosomes). The nucleus is surrounded by the nuclear membrane.
photosynthesis - a process in which plants convert sunlight, water, and carbon dioxide into food energy (sugars and starches), oxygen and water. Chlorophyll or closely-related pigments (substances that color the plant) are essential to the photosynthetic process.
ribosome - small organelles composed of RNA-rich cytoplasmic granules that are sites of protein synthesis.
rough endoplasmic reticulum - (rough ER) a vast system of interconnected, membranous, infolded and convoluted sacks that are located in the cell's cytoplasm (the ER is continuous with the outer nuclear membrane). Rough ER is covered with ribosomes that give it a rough appearance. Rough ER transport materials through the cell and produces proteins in sacks called cisternae (which are sent to the Golgi body, or inserted into the cell membrane).
smooth endoplasmic reticulum - (smooth ER) a vast system of interconnected, membranous, infolded and convoluted tubes that are located in the cell's cytoplasm (the ER is continuous with the outer nuclear membrane). The space within the ER is called the ER lumen. Smooth ER transport materials through the cell. It contains enzymes and produces and digests lipids (fats) and membrane proteins; smooth ER buds off from rough ER, moving the newly-made proteins and lipids to the Golgi body and membranesstroma.
stroma - part of the chloroplasts in plant cells, located within the inner membrane of chloroplasts, between the grana.
thylakoid disk - thylakoid disks are disk-shaped membrane structures in chloroplasts that contain chlorophyll. Chloroplasts are made up of stacks of thylakoid disks; a stack of thylakoid disks is called a granum. Photosynthesis (the production of ATP molecules from sunlight) takes place on thylakoid disks.
vacuole - a large, membrane-bound space within a plant cell that is filled with fluid. Most plant cells have a single vacuole that takes up much of the cell. It helps maintain the shape of the cell.
Questions for Thoughts
1.) What is a plant cell?
2.) How many cells make up a plant?
3.) What are the characteristics of each plant cell?
Sunday, September 23, 2007
Multiple Intelligence Quiz
here are the result of my multiple intelligence quiz:
Tuesday, September 18, 2007
currents
1. Explain how currents contribute to the distribution of marine organisms around the planet.
- Throughout the distribution of marine organisms, the currents contribute to the circulating controls of water temperature. Therefore, marine organisms will survive, provided that the water temperature is controlled.
2. The primary factor influencing ocean currents is temperature regulation. What might happen to the ocean currents (and has happened in the past) as global warming increases? - A possibility of another ice age might occur if globally warming continues to increase.
3. Explain how density changes cause currents.Use google image to find a world map. Copy and paste into paint and use the drawing tools to create the currents and label them. - As the water changes its temperature, currents of movement from the water will ascend to the surface.
Pau Pau Beach
Tuesday, September 11, 2007
The Shape of Life
1.) What organism is thought to be the first multi-cellular animal?
- The Ancient Sponge
2.) How is it the same (3 examples) and different (3 examples) from animals today?
- The similarity of todays animals is that they reproduce
- The differences of todays animals is that they reinvent themselves, they do not have a heart, and they produce sex life faster not just for food.
3.) How do scientists know its an animal?
- Scientists can distinguish if an animal reproduces, it has a heart, and it captures a prey for it's food.
4.) What evidence do scientists have to prove that other animals (multi-cellular) evolved from this organism?
- Through the process of DNA
5.) What more do you want to know?
- Good question! I would like to know about sponges and it's relation to a plant.
Monday, September 10, 2007
Lab Activity for September 08, 2007 (Mt. LauLau)
To conclude i've gained many knowledge and experience throughout the hike. It was a great day with many of my friends. I will never forget this moment. Once again thanks to Ms. Bree and Angelo for a job well done. You both rock!
Lab Activity for September 01, 2007 (Obyan Beach)
1. Parrot Fish – Bleeker’s parrotfish, Scarus bleekeri, 35 cm (W. Pacific) [page 327 – Field Guide]
2. Tataga – Bluespine unicornfish, Naso unicornis, 40 cm [page 337 – Field Guide]
3. Hangun – Orangespine unicornfish, Naso lituratus, 35 cm [page 337 – Field Guide]
4. Striped Fish W/Sharp Blade Near Tail – Sohal surgeonfish, Acanthurus sohal, 30 cm (Red Sea) [page 337 – Field Guide]
5. Tiny Gray Fish W/Black Vertical Stripes – Convict surgeonfish, Acanthurus triostegus, 25 cm [page 337 – Field Guide]
6. Butterfly Fish – Moorish idol, Zanclus cornutus, (Zanclidae) 22 cm [page 339 – Field Guide] 7. Pipefish – Banded pipefish, Corythoichthys intestinalis, 10 cm [page 267 – Field Guide]
8. Gadao – Dwarf-spotted grouper, Epinephelus merra, 18 cm [page 275 – Field Guide]
9. School of Baby Yellow/Black Striped Fish W/Big Eyes – Gold-lined sea bream, Gnathodentex aurolineatus, 25 cm [page 288 – Field Guide]
10. I’I or E’E/Tarakitu – Thicklip trevally, Carangoides orthogrammus, 40 cm [page 283 – Field Guide]
Lab Activity for August 25, 2007 (San Antonio Beach)
CB, Harley and Joann; Stenaopus Hispidus (Cleaner shrimp) id; Masahide
CB, Harley and Joann; Echinothrix Calanans (Sea Urchia) id; Harley
CB, Harley and Joann; Synapta Macusatag (Sea Cucumber) id; Harley
CB, Phillip; Neoniphon Sanmara id; Phillip
CB, Victoria, Lynette, Maryann, Frances, Charmaine, Eva, and Justo; Synapta Macusatag (Sea Cucumber); id; Victoria
CB, Phillip; Canthigaster Solandri (Solanders Sharp Nose Puffer) id; Taylor
CB, Joann and Lorna Asteronotus Cespiposus (Lumpy Asteronotus) id; Joann
CB, Lorna and Joann Holothuna (Thymiosycia) Hilla (Seacumber) id; Lorna
CB, Kathy Stichopus Chloronotus (Stichopodide) id; Kathy
CB, Xu Dan and Frances Brushtail tang zebrasomoscopus
Thursday, September 06, 2007
Amelia Earhart (Dr. Thomas F. King) extra credit
On the other hand, Dr. King mentioned about the seven sites they studied on. Some sites were interesting and a few sites were lame. Out of the seven sites, one really caught my attenetion. This site was the pig's eperimentation. After Dr. King shared some thoughts about the pig's experimentation, the crowd laughed. I stopped and thought about it for a moment. Then, I asked myself what really happened to the pig. Anyhow, it was a great laugh.
To conclude, I have to say that I was amazed towards Dr. King's lecture. I also learned many new things about Amelia Earhart and her navigator Fred Noonan. Moreover, the overall presentation was clear and very comprehensive. Dr. King and his crew did a great job and stil continue too. I give them props. And hopefully one day Dr. King will return back to the CNMI with great news that Amelia Earhart and Fred Noonan's unanswered mystery is now solved.