Bachelors Of Science ( Information Technology )

COURSE COMPOSITION OF THE THREE YEAR INTEGRATED B.Sc. (Information Technology) DEGREE COURSE (3 Years Degree Course) (Total 6 Semesters, 2 Semesters per year)

This is three years degree course of the University of Mumbai giving scope in specialization in the field of Information Technology And admissions to the course will be conducted as per the guidelines and schedule announced by the University of Mumbal.
A Candidate for being eligible for admission to the Bachelor of Science Information Technology Degree Course should have passed he H.S.C. (Std.XII) Examination conducted by the Maharashtra State Board of Secondary and Higher Secondary Education or its equivalent with MATHEMATICS & STATISTICS as one subject and should have secured not less than 45% marks in aggregate and 40% marks in aggregate in case of reserved candidates, at one and the same sitting.
Candidate who have passed Diploma (Three years after S.S.C. X th Std.) in Information Technology/Computer Technology / Computer Engineering/Computer Science/Electrical, Electronics and Video Engineering and Allied Branches /Civil and Allied branches are eligible for direct admission to the Second year of the B.Sc. (I.T.) degree Course. However, the Diploma should be recognized by the Board of Technical Education or any other recognized Government Body. Minimum marks required 45% aggregate for open category candidates and 40% aggregate for reserved category candidates.
OR
Candidates with post HSC-Diploma in Information Technology/Computer Technology/ Computer Engineering. Computer Science. And Allied branches will be eligible for direct admission to the Second Year of B.Sc. I.T. However, the Diploma should be recognized by the Board of Technical Education or any other recognized Government Body. Minimum marks required 45% aggregate for open category candidates and 40% aggregate for reserved category candidates Students coming from any other State Board in India will also be admitted to F.Y.B.Sc.(I.T.) Class . However, they will be required to produce Provisional Statement of Eligibility obtained from the Eligibility Section, University of Mumbai, Vidyanagari , Kalina or they will be admitted Provisionally subject to the Submission of Eligibility Form and the Demand Draft towards the Eligibility Fees as per the University Circular No. Elg /Cir/(39)/561 /2008 dated 22-5-2008.

Science and Environment This Unstable Earth

Geological hazards specialist McGuire comments: “What is certain is that at some point in the future the west flank of the Cumbre Vieja on La Palma will collapse, and the resulting tsunamis will ravage the entire Atlantic rim.”

He adds that “Steven Ward of the University of California at Santa Cruz and Simon Day of University College London’s Benfield Greig Hazard Research Centre created quite a stir recently when they published a scientific paper that modelled the future collapse of the Cumbre Vieja and the passage of the resulting tsunamis across the Atlantic. . . . Without considerable forward planning it is unlikely that the nine hours it will take for the waves to reach the North American coastline will permit effective, large-scale evacuation, and the death toll is certain to run into millions if not tens of millions. Furthermore, the impact on the US economy will be close to terminal, with the insurance industry wiped out at a stroke and global economic meltdown following swiftly on its heels.”

SPITEFUL SPIRITS

For centuries the ancients believed that volcanic eruptions expressed the dissatisfaction of the gods. Accordingly, they would offer a sacrifice–generally animal or human–in hopes of appeasing those gods and preventing catastrophes.

Throughout most of human history, natural disasters have been attributed to supernatural intervention. Andrew Robinson, in his book Earth Shock: Hurricanes, Volcanoes, Earthquakes, Tornadoes and Other Forces of Nature (2002), comments on this phenomenon:

“In Europe, earthquakes were God’s punishment for sin–according to the Church at least. When a gigantic one laid waste Lisbon in November 1755, the Inquisition responded by roasting the survivors in the fires of the auto-da-f [literally “act of faith,” public execution ceremonies]; while the pessimist Voltaire published first a poem and then, in 1759, his famous story Candide. Both works attacked the Pope–for attributing the earthquake to Man’s lack of faith in God–and also the German philosopher and mathematician Leibniz–who optimistically held that God must have sent the earthquake as part of His plan for the Earth. Why Lisbon? Why not decadent London or Paris? questioned Voltaire in the poem: ‘Lisbon lies in ruins, while in Paris they dance.'”

Even today natural disasters are often referred to as “acts of God.” But is this how such occurrences should be viewed? Are these tragic events from the hand of a spiteful, cruel and angry God who flings natural disasters to earth with the express intention of inflicting suffering on weak and erring humans? Alternatively, are such catastrophes a sign of the end of the world?

NEW WORLD ORDER

In the Bible God describes Himself as a gentle, loving, caring Father who has mercy and compassion on His children (Psalm 103:8, 13). He states that He wants all humanity to prosper and be in health. He expresses Himself as a Being who wants to create a world in which everyone can live in peace and safety, free from the fears of either natural catastrophes or man-made calamities caused by wrong ways of life or misuse of the earth’s natural resources (Isaiah 32:17-18).

Race To The Top, The Need For Science Assessment Kits Next Generation Science Standards

States are in varying stages of developing their NCLB science assessments. Typically, states contract with assessment companies which have a history of producing standardized, norm referenced tests, e.g., the Iowa Test of Basic Skills (ITBS), the Tera Nova, the Stanford Achievement Test (SAT-9, SAT-10).
These new NCLB science tests must include either criterion-referenced assessments or augmented norm-referenced assessments, or both. The world of the standardized, multiple-choice, norm referenced test is disappearing as standards-aligned, criterion-referenced tests emerge.
Because many states’ science standards include science inquiry and science process skills that are difficult to assess with conventional multiple-choice questions, more and more science assessments are taking on a different format and look. To assess a student’s skills, students must “perform”.
Hands-on performance assessment is moving us “beyond the bubble” of Scantron forms. When students are asked to perform, they are better able to utilize their unique learning styles (kinesthetic, visual, aural, etc.) as they tap into their own content knowledge of science. Student work from hands-on performance assessments better informs the teacher (and student) of what the student understands versus what bubble he may have guessed to be right.
Hands-on performance assessment in science requires students to perform various science skills (observation, data collection, organizing data, data analysis, drawing conclusions, etc.) as they manipulate equipment. Science equipment, typically organized in classroom sets, is delivered as science kits.
As the need for criterion-referenced science assessment of inquiry skills takes hold, the demand for science kits will continue to increase. States, districts, and schools are realizing that to assess science inquiry adequately, kits are a necessary, essential part of the assessment program. Educators also realize that if they are to meet the NCLB requirements for science assessment, i.e., to use up-to-date measures to assess mastery of science standards, and the states’ science content standards include science inquiry, then the tests themselves need to include student hands-on performance tasks. And since “what gets tested gets taught,” we will see an increasing number of science inquiry learning activities in classroom curriculum throughout the school year.

The National Assessment of Educational Progress (NAEP) program has been using science kits (HOTs) as part of its science program since the 1990s. These science tests are administered every four years to a small sample of students across the nation. Although this national assessment program advocates the use of performance assessment requiring hands-on manipulation of science equipment, it is limited in scope. The more powerful influences that are changing science assessment nationally stem from the requirements of the No Child Left Behind Act of 2001.

In a recent report, NAEP discusses the value of hands-on tasks.

Science education is not just about learning facts in a classroom its about doing activities where students put their understanding of science principles into action. Tasks were designed to assess how well students can perform scientific investigations, draw valid conclusions, and explain their results. In 2009, in addition to the paper-and-pencil questions, fourth-, eighth-, and twelfth-graders also completed a new generation of hands-on tasks during which students worked with lab materials and other equipment to perform experiments. These tasks help us understand not only what students know, but how well they are able to reason through complex problems and apply science to real-life situations. While performing the, hands-on tasks, students manipulate objects and perform actual experiments, offering us richer data on how students respond to scientific challenges.1

The Next Generation Science Standards (NGSS) are written as performance expectations that are composed of all three components of the Framework for K-12 Science Education: Practices, crosscutting Concepts, and Core Ideas.2 Core ideas, practices, and crosscutting concepts are elements of each performance expectation. These expectations are written to address one goal of the Framework, i.e., a more seamless blending of practices with core ideas and crosscutting concepts. Hands-on performance assessment tasks can be used to effectively assess science practices and core ideas simultaneously.

1The Nations Report Card: Science in Action: Hands-On and Interactive Computer Tasks From the 2009 Science Assessment (NCES 2012-468).

2A Framework for K-12 Science Education: Practices, Crosscutting Concepts, and Core Ideas, National Research Council, 2012.

The Science of Lust and Love

Pheromones are the smell chemicals that signal sexual attraction or repulsion. No matter how much you like someone, if they do not smell good to you, the sexual attraction just doesn’t work. It’s said that women on birth control pills will subconsciously seek out men who smell like good protectors and fathers because the pill simulates pregnancy. But sometimes when these women go off the pill, they suddenly find their mate doesn’t smell attractive anymore. Bummer!

In conclusion: the attraction chemicals fade at about 2 to 3 years and are replaced by the bonding chemicals. The bonding chemicals actually interfere with the exciting “in love” chemicals and create a more “comfortable” bonding love which lasts another few years.

Evolutionarily, the theory is that the couple stays together long enough to raise a child out of infancy. Then both men and women (yes, women are not built for monogamy either) move on and repeat the process. It’s good for the gene pool.

So, if you are addicted to the love/lust chemical high, it’s very important to keep your sexual and romantic life exciting and new. How to do that? Well, that’s a good question for a relationship/marriage counselor!

Resources: The Chemistry of Love” by Dr. Susan Block http://www.counterpunch.org/block02122005.html “The Science of Love Cupid’s Chemistry” by Claire McLoughlin http://www.thenakedscientists.com/HTML/articles/article/clairemcloughlincolumn1.htm/ Labels: chemistry, love, relationships, self-improvement, sexuality

Science Experiment How To Make A Sundial

At the same time the Egyptians invented the “shadow clock”, other cultures also developed a need to organize their time more efficiently. Amongst others, the Chinese, Greeks and the Romans developed another device for telling the time known as a “sundial”. Sundials do not necessarily work better than shadow clocks; it is just a slight variation to the shadow clock. Make your own “sundial” to tell the time in this science experiment:

WHAT YOU NEED:

“Protractor
“Stiff card
“Compass
“Thick cardboard
“Glue
“Scissors

HOW TO PROCEED:

1.On a stiff piece of cardboard, draw a right angled triangle as in the diagram above. The short sides of the triangle should be about 150mm long, whereas the long side will be about 200mm, depending on the longitudinal angle used for your town. Make sure that you also add the base, below the dotted line.
2.Cut out the triangle, and make a fold along the dotted line to form the base for the triangle to stand on.
3.Make a thick base for your sundial out of corrugated cardboard or wood of about 150x300mm in size. Draw a semi-circle on the base as shown in the diagram above.
4.Glue the folded part of the triangle firmly to the base and place the sundial on a flat surface outside so that the triangle points north / south.
5.Mark the position of the shadow that falls on the base every hour. Notice that the shadow travels the same distance along the semi-circle every hour. On a sunny day you will now be able to tell the time by looking at the position of the shadow on your sundial!

In the above science experiment we have built a time indicating device called a “sundial”. This works because of the fact that shadows change direction, depending upon the time of day. The position of the sun in relation to a specific location on earth changes throughout the day as the earth rotates around its own axis every 24 hours. A “sundial” like this one, uses a shadow’s position to tell the time. The position of a shadow on the semi-circle depends on the time of day, but it also depends on the season of the year. That’s because the sun’s position at a certain time of day is different in different seasons.

MORE FACTS:

The obvious problem with “sundials” and “shadow clocks” is that they don’t work during night time! The king of Egypt, was not satisfied having to check the position of the stars to know what the time is during the night, so one of his princes made him a water clock. A water clock works by taking a big bucket of water, fills it with water up to a specific line and then cut a small hole in the bottom of the bucket and marked off lines on the bucket after each hour had passed. The problem with a water clock is that water flows more slowly or quickly when the temperature changes. The same principle was used but the water was substituted with sand to make a sand clock. The inventor of the sand clock is unknown, but the sand clock or hourglass was commonly used in ancient times and is still used today.