Biology Prefixes and Suffixes Erythr- or Erythro-

Leadership Value Free Essays

Leadership has been a common term and everyone has his or her own understanding of its meaning. Most of the time we understood leadership on one’s strong character combined with charisma. But this understanding is faulty as leadership is not a sole function of individual charisma or talent but a collective activity. We will write a custom essay sample on Leadership Value or any similar topic only for you Order Now Gilbert Fairnholm defines leadership as an interactive function of a leader and several followers jointly engaged† (p. 8) which means that there is a collective effort in terms of value and trust enough to prove each one’s confidence in participating in collective activity. Value on the other hand derived its roots from French and English word courage or valor. In business world, value means worth thus according to Kim S. Cameron, â€Å"value creation is the objective of every enterprise, every worker, and every leader and all employees are judged by their ability to create value† (p. 4). Leadership value therefore could mean a collected courageous undertakings being inspired by the leader’s own courage or the worth of having a leader in a collective effort. The leadership Principles Joseph A. Heim pointed out five principles of leadership that should be implemented in order to have a â€Å"successful management of people and technology† (p. 161). The first principle, the people understands the vision. Heim explained that when people understands the vision or the larger task of an enterprise, and are given the right information, the resources, and the responsibility, they will do the right thing (p. 161). The second principle is empowerment of individual. Heim noted that empowered people—and of course with a good leadership–empowered groups will have not only the ability but also the desire to participate in the decision process. Heim explained that the level of involvement will enable and encourage the individual to make decision rather than adopt a passive or reactive attitude, waiting to be told what to do. The third principle is a comprehensive and effective communications network. Heim emphasized that this network should distribute knowledge and information widely; embracing the openness and trust that allow the individual to feel empowered to affect the real problems. The fourth is integrated enterprise, it is the result of â€Å"democratization and dissemination of information through the network† (p. 161) in all directions irrespective of organizational position. The result of these first four principles, which is distributed decision-making, is the fifth principle. Heim pointed out that â€Å"information freely shared with empowered people who are motivated to make decisions will naturally distribute the decision making process through the entire organization. Leadership and Values According to Jeswal Salacuse, â€Å"Leadership express a complex and at the same time flexible concept† (p. 19). Salacuse noted that the English word â€Å"leader† is derived from the old English laedan which means to show the way, to be ahead of   moving a group of people willing toward and objective. It therefore implies the existence of followers. Like leadership, everyone may have already basic idea of what values are. Dran, Gila M. Von, and Jennifer Cargill point out that Values â€Å"are broad general beliefs about the way people should behave, or about some end state they should attain† (p. 121). They explained that people form their values in the same way in which they develop their personality, thus values are conclusive beliefs individual develop gradually about what is true or right or good about their world. They pointed out â€Å"values come from the early conditioning, experience, and significant events in one’s life† (p. 121) and are the criteria for selecting actions, goals, and methods. Leadership Traits Pieter John Diederik Drenth, Henk Thiery, and Charles Johanes Wolff, pointed out that leadership traits â€Å"is founded on the assumption that leaders poses certain personal qualities, such as courage, intelligence, strength of character, vision, or charisma, which followers do not possess† (p. 326) But this assumption waned because according to Drent, Thiery, and Wolff, â€Å"it has proved impossible to find a single set of characteristic that enables a clear and reliable distinction to be drawn between†¦ leaders and followers† (p. 326). But recent study admits that certain characteristics are only important in certain circumstances such as in athletic or sports. Drent, Thiery and Wolff pointed out the studies conducted in 1981 by Bass which concludes that â€Å"Leadership as such is not a property of an individual’s personality, but there are nonetheless certain fixed personal characteristic that seem to play part in the exercise of leadership† (p. 326). Leadership Skill Like leadership and values, skill is a familiar term. Skill is the ability to do something well. Robert Eugene Lefton and Victor Buzzota identified four basic leadership skills that a leader needs. First, The sizing-up skills or the ability to observe what do in work situations as objectively as you can; Second, Communication skills or the ability to find out what others think and for getting your own ideas across, Third, Motivational skills or the ability to create an environment in which people do what they are capable of because they have a compelling reason to do so, and fourth, Adaptive skills or the ability to relate to people as a unique individual. Advance leadership skills Advance leadership skills according to William Christ, are â€Å"blends of knowledge, skill, and attitude and require greater levels of behavioral flexibility and adaptability† (p. 29). Below are some of the advance leadership scales that Christ delineated. (1) Manage and resolve conflicts effectively, (2) Develop messages that influence attitudes, beliefs, and actions, (3) Ability to demonstrate credibility and ability to manage multiple communications effectively, (4) Creative management skills, and (5) interpersonal skills. Leadership Behavior Leadership behavior according Manuel London is the result of perceiving situations, relating situational perceptions to accumulated knowledge, and then using scripts to guide the production of situationally appropriate behavior.   Studies on leadership behavior shows that exemplary leaders always balanced high task orientation and high person orientation, according to Gary Monroe Crow, Joseph Mathews, and Lloyed Mc Cleary, task orientation focused such behaviors as planning, monitoring and coordinating, while person-orientation focused on such behavior as informing of decisions and praising their accomplishment (p. 11). Assessing Leadership and measuring its Effect Assessing leadership according to Daniel Goleman , Rechard Boyatzis, and Annie Mckee can be done through a series of interviews   and observations by a professional executive coach. Goleman, Boyatzis, and McKee point out that a â€Å"typical process include conversations about the leaders career and life history, discussion of current managerial and leadership challenges, and discussion of the organizational-level issues as well as including things such as climate, politics, and system† (p. 228). Novick, Morrow, and Mays discussed measuring leadership effect.   According to them, one question that a leader should ask is, ‘How am I doing as a leader?’   They suggested that by using psychological assessment instruments can help measure leadership effect or effectiveness.   This instrument that help assess one’s self and appreciate the contribution of others is available in many forms. Work Cited Cameron, Kim S. Competing Values Leadership: Creating Value in Organization. Christ, William. Leadership in Times of Change: A Handbook for Communication and Media Administrators (Lawrence Erlbaum Associates, 1998) Crow, Gary Monroe, et.al. Leadership: A Relevant and Realistic Role for Principals. (Eye on Education, Inc., 1996). Drenth, Pieter Johan Drederick, et.al., Organizational Psychology. (Psychology Press, 1998). Fairnholm, Gilbert W. Leadership and Culture of Trust. (Praeger/Greenwood, 1994). Heim, Joseph. Manufacturing Systems: Foundations of World Class Practice. (National Academies, 1992). Goleman Daniel, et.al. Primal Leadership: Learning to Lead. (Harvard Business School Press, 2004). Lefton, Robert Eugene and Buzzota, Victor. Leadership Through People Skills. (McGraw-Hill Professional, 2004). London, Manuel. How People Evaluate Others in Organization. (Lawrence Erlbaum Associates, 2001). Novick, Lloyd, et.al. Public Health Administration: Principles for Population Based Management. (Jones and Bartlett, 2007) Salacuse, Jeswal W. Leading Leaders: How to Manage Smart, Talented, Rich, and Powerful People. (AMARCOM Div. American Management Association, 2006).             How to cite Leadership Value, Essay examples

Atomic bomb Example For Students

Atomic bomb Where did the atomic bomb come from? In this paper, I will look at the development of the ideas needed to create an atomic bomb. Specifically, what did scientists need to know for them to theorize that a cataclysmic explosion would result when a critical mass of certain elements undergo a chain reaction of nuclear fission. However, I will only look at scientific ideas generally, as they progressed towards fission. This development of ideas was propelled by genius, persistence and tenacity, coupled with flashes of insight into the nature of the universe. We see that this development is tied closely to the ability to free the teathers of erroneous paradigms and build better models of the universe in their place. We will be concerned, principally, with the development of physics. Einstein wrote the following on the definition of physics: What we call physics comprises that group of natural sciences which base their concepts on measurements; and whose concepts and propositions lend themselves to mathematical formulation. (Weaver, 78) Although physics today is more focused, this is the basis of all science. One of the first groups of people to freely think about the universe and make an attempt to explain their world scientifically were the Greeks. II. The Greek Ideology The Greeks investigation of science demonstrate that their minds were on par with the best of this era, specifically Aristotle (384 322 B. C. ), who formed many brilliant theories. He, along with others, put the theories into sophisticated form that created the basis of scientific thought for close to two millennia. In his universe were four elements: Earth, Water, Air, and Fire. The Earth was the common center of all the solid materials and had a natural place as the center of the universe. If all the solid material sought a location as close to the center as possible, then the Earth had to be a sphere. He had likewise ordered the other elements into spheres. Water had its natural place on the surface of the sphere Earth. Air had its natural place on the surface of the sphere Water. Fire had its natural place outside the sphere of Air. Observations corresponded to this view of the universe. However, he performed no experiments. He stated that heavier objects would want to move faster toward their respective spheres than lighter objects. It is regrettable that he did not perform any of a number of simple experiments to prove or disprove his ideas. These Greek philosophers worked to explain the motion of matter. Their ordering of the universe defined what happened when an element found itself outside of its sphere. It simply sought its correct sphere. They also did well with basic types of motion, stating that when one object had contact with another it would create motion in that object. There were other types of motion they had trouble with. For instance, why does a ball keep rolling even after your hand no longer has contact with it? Another problem that arises from the Aristotelian classification is how would two objects affect each other in a vacuum? Aristotle had theorized that vacuums would create difficulties, but in his day they were only considered a philosophical abstraction. The problem did not need to be dealt with seriously. Nevertheless, motion in the absence of the element Air was unthinkable. For them, Air had inherent physical properties. Also, it encompassed everything that could possibly have motion. The absence of Air meant the absence of motion. Before we can answer these questions, however, we must look at when and how observation combined with experimentation. III. Unifying Observation and Thought with Experimentation The Aristotelian universe was generally accepted for about 1600 years. During the late Middle Ages the view began to change slowly. Scholars began to view experimenting as a method of testing theories. The following passage explains the beginning of the change in ideas when scientists used experimentation methodically. Historically we may say the revolution in ideas began with Copernicus and his heliocentric theory of the solar system, but Keplers work is much closer to modern science than that of Copernicus, for in formulating his three laws of planetary motion, Kepler proceeded much the way the contemporary physicist does in constructing theoretical models of structures such as atoms, stars, or galaxies. Even so, Galileo and Newton were the initiators of modern science, for whereas Keplers work was primarily empirical, the work of Galileo and Newton has all the elements of what we now call physics. This work was an enormous step forward in that it revealed the relationship between the motion of a body and the forces acting on it. (Weaver, 18) Lets back track slightly to Galileo Galilei (1564 1642). It was not until Galileo that the Aristotelian universe collapsed in a flurry of ingenious and conclusive experiments. Galileo did not invent experimentation, but he forever united it with science. For a brief background of Galileo, we turn to Segres From Falling Bodies to Radio Waves. Galileo passed the first ten years of his life in Pisa, went to Florence around 1574, and was back in Pisa in 1581, registering as a student of medicine at the university. When he was nineteen years old he became acquainted with geometry by reading books and meeting the mathematician Ostilio Ricci (1540 1603). what a revelation the discovery of geometry must have been for the young man. He was studying something probably distasteful to him, and all of a sudden he found the intellectual for which h e was born and which somehow had escaped him previously. Probably only passionate love can equal the strong emotion aroused by such an event. (Segre, From Falling , 16) Galileo was the first person to create a shop for the pursuit of scientific study. Some experiments dealt with time-keeping, not an easy task four hundred years ago. He dripped water down inclined planes and achieved useful results. He also experimented with rolling balls of various weights on these inclined planes. It is not difficult to prove that the amount of time for the ball to traverse the plane is independent of the mass of the ball. In other words, it requires an equal amount of time for two balls of different weights to roll down an inclined plane. From this, and other experiments, he made the generalization that all bodies fell through equal distances in equal times. There were other significant discoveries made. Aristotelian thought was proved incorrect. Or we may say the generalizations made by Galileo provides a base to explain more phenomena when compared to the Aristotelian universe. After other people performed experiments and formed theories, and a hundred years passed, Sir Issac Newton (1642 1727) enters the stage. Newton developed mathematical tools to help him solve the problems created by his scientific pursuits. The nature of the phenomena he was pursuing forced him to create calculus. The following passage fills in some of the details. Using the calculus, Newton deduced Keplers three laws of planetary motion. This changed the methodology of scientific research forever, for it showed that a correct physical law (Newtons law of gravity) combined with logic (mathematics) can reveal new truths with relatively little effort and in a relatively short time. Keplers empirical formulation of the laws of planetary motion represents some sixty man-years of research (thirty years of Tycho Brahes observation and thirty years of Keplers arithmetic analysis), were as Newtons derivation took only an hour or two. (Jefferson, 19) The development of the correct mathematical tools was an important event. When mathematics is combined with experimentation and thought, a new method of discovering the laws of nature is possible. The importance of this event can not be understated. Here is another example of the power of Newtons laws, applying thought and using mathematics. At the beginning of the 1800s , Uranus was found to have perturbations in its orbit. These perturbations were different from the orbit calculated by Newtons law of gravitation. This fact threatened to dismantle the Newtonian universe. Then in the 1840s, John Couch Adams (1819 1892) and Jean Joseph Leverrier (1811 1877), believing Newtons law to be correct, developed a theory which could account for the differences between the predicted location for Uranus and its actual location. This theory was that another planets gravitational influence was perturbing Uranuss orbit. Subsequently, Neptune was discovered. Still the difficulty of how objects affected each other remained. We return now to the different types of motion to appreciate the scientific problem facing people in the 17th century. IV. Action at a Distance Recall that the Greeks had difficulty explaining how a ball, once rolling, keeps rolling, and how objects would affect each other through a vacuum. Newton was able to explain the first problem with his first law: An object in motion tends to stay in motions. This is also know as inertia. The ball that is rolling stays in motion because the only way to change its motion is to subject it to more force. Community Service Projects, Lo EssayThese charges were concentrated in a comparatively small volume of space. This nucleus was circled by a similar number of negative charges. (He knew there were problems with this theory, but he used this theory in the same way that Newton was willing to use action-at-a-distance. It was close enough to make useful calculations. ) The alpha particles that shot into the foil and bounced back were deflected by the nucleus. This deflection was the result of the mutual repulsion two protons have for each other. It is governed by the mathematical description of Coulombs law. Without field theory, Rutherford would have had to figure out how two very small protons are able to feel each others presence inside an atom. But with field theory, he did not need to concern himself with it too much. Rutherfords next problem dealt with finding the neutron. The neutron had been hypothesized from the fact that helium has a weight of four protons but an electrical charge of only two. The question of the extra weight was perplexing. The idea of a neutral particle, with the properties that are associated with what is now known as the neutron, was first proposed by Rutherford in 1920. James Chadwick (1891 1974) and Rutherford performed a search for this theoretical particle, but were unable to prove its existence. Shortly, we will see what had to happen first to make the discovery of the neutron possible. Thus, the atom could be shown to exist. Shortly after Rutherfords evidence that the atom is like planetary system, but on a very small scale, was made known, many people commenced work in this new field which later became known as nuclear physics. Some, such as Rutherford and the Curies, made this topic their lifes work. The experiments lead to quantum mechanics, which was also worked on steadily through this time period. It is still pursued today, but unfortunately, we will not look at quantum mechanics in this paper. VIII. Fission Frederic Joliot (1900 1958) and Irene Curie (1897 1956), his wife, were performing experiments in 1931 with polonium, which had been discovered by her mother, Marie Curie. Their experiments produced very strange results; literal transmutations of elements were occurring at the atomic level for which they could not account. They published these results on January 18, 1932. When Chadwick saw the report he repeated the experiments, using additional elements, and proved that the radiation contained a neutral particle whose mass was approximate to that of a proton. He called it a neutron in a report sent to Nature on February 17, 1932. Continuing his work found that slow moving neutrons were more apt at producing these transmutations than protons. When he received the Nobel Prize in 1935, he discoursed on the usefulness of the neutron as a catalyst to fission. A small excerpt from his lecture follows. The great effectiveness of the neutron in producing nuclear transmutations is not difficult to explain. In the collisions of a charged particle with a nucleus, the chance of entry is limited by the Coulomb forces between the particle and the nucleus; these impose a minimum distance of approach which increases with the atomic number of the nucleus and soon becomes so large that the chance of the particle entering the nucleus is very small. In the case of collisions of a neutron with the nucleus there is no limitation of this kind. The force between a neutron and a nucleus is inappreciable except at very small distances, when it increases very rapidly and is attractive. Instead of the potential wall in the case of the charged particle, the neutron encounters a potential hole. Thus even neutrons of very small energy can penetrate into the nucleus. Indeed slow neutrons may be enormously more effective than fast neutrons, for they spend a longer time in the nucleus. (Weaver, 733) As stated in the quote, slow moving neutrons have a greater incidence of affecting the nuclei of the material than fast moving neutrons. By bombarding of the elements, and determining the reactions that took place, physicists found the neutron to proton ratio of a wide range of these elements. They also found that the neutron to proton ratio increased as the number of protons in the nucleus increased. The element with the most protons known at the time was uranium. It has 92 protons and 146 neutrons. (It is usually known as uranium-238. ) Bombarding uranium yielded the most spectacular results yet. The uranium atom was actually split into two atoms of approximately the same size and fission was accomplished. This released significant amounts of energy. It was found that an isotope of uranium, uranium-235, easily fissioned with slow neutrons to yield krypton and barium. Taylor, 353) Unfortunately, uranium-235 is found in naturally occurring uranium only about 1 part in 137. Extracting it is not an easy process. (Segre, From X-rays , 210) This provides the last piece of information needed to deduce the possibility of an atomic bomb. IX. Sustained Reactions The Atomic Bomb In 1940, Otto Frisch and Rudolph Peierls posed an important question. From Nuclear Fear, we may read this question. Exactly what would happen, they asked themselves, if you could cull from natural uranium a mass composed purely of the rare uranium-235? Bohr and others had told the public that there could be enough energy there to blow up a city, but nobody had worked it out as a serious technical possibility. Now Frisch and Peierls realized that with fissionable uranium-235 atoms all crammed together, there would be no need for a moderator to slow the neutrons down, since even the fast neutrons emitted in each fission would have a good chance to provoke another fission. The whole chain reaction would go so swiftly that, before the mass had a chance to blow itself apart, a run away many of the uranium-235 atoms split and release energy. (Weart, 84) This question may have been left academic for years had it not been for World War II. As the awesome power of an atomic bomb was realized by leaders of several countries, a race began to be the first to make a working bomb. As a result, a simpler method was discovered than separating uranium-235 from uranium-238. This simpler method starts when uranium-238 absorbs a single neutron a new element, called neptunium-239, is created. (Neptunium-239 has 93 protons and 146 neutrons. ) This element decays into plutonium-239 (94 protons and 145 neutrons). Plutonium is stable and also has the property of undergoing fission with slow neutrons. Hence, the atom bomb was conceivable. Plutonium was produced in a reactor. (Weart, 87) The United States was one of the nations was one of the countries searching for the technology to make the atomic bomb a reality. On July 16, 1945, they succeeded when the first atomic bomb was detonated. In an isolated spot named Alamogordo, moments before first light , night exploded noiselessly into day. Searing colors gold, purple, blue, violet, gray illuminated everything in sight. From the floor of the desert, a ball of fire rose like the sun (only brighter, one report read, equal to several suns in midday). Thirty seconds later came a blast of burning air, followed almost instantaneously by an awesome roar. A cloud the shape of an immense mushroom ascended nearly eight miles, was caught by the desert winds, and curled into a giant question mark. (Stoff, 1) This was the realization of a long trek through history. Thought and experiment combined with field theory, a knowledge of chemical properties of the elements, and the discovery of radioactivity. This gave people the ability to answer the question: What is the structure of the atom? Not only was the structure determined, but it was found that the number of protons and neutrons could change. Protons and neutrons together are known as nucleons particles that inhabit the nucleus. ) Changing the number of nucleons has several names: radioactivity, fission and fusion according to how the atom is changing and what is causing the change. Generally energy is released as a result of this change. Using Einsteins bold statement that E=mc^2, the nature of this energy became known. The energy is a direct conversion from part of the mass of the atom. As we saw, it was a short technological step to use the same source of energy for the sun, as a source of energy on the earth.

20 Slang Terms for Law Enforcement Personnel

20 Slang Terms for Law Enforcement Personnel 20 Slang Terms for Law Enforcement Personnel 20 Slang Terms for Law Enforcement Personnel By Mark Nichol A variety of more or less colorful colloquialisms referring to police officers and similar authority figures have developed in American English, sometimes inspired by other languages. Here is a list of such terms. 1. barney: This gently derogatory term refers to Barney Fife, a bumbling small-town deputy sheriff in the classic 1960s sitcom The Andy Griffith Show. 2. bear: This term, from truckers’ slang, alludes to a style of hat worn by some law enforcement personnel- one that resembles the one worn by fire-safety icon Smokey the Bear. (See also Smokey.) 3. the boys in blue: This folksy phrase refers to the frequent use of blue as the color of a police officer’s uniform- and harks back to a time when only men could become police officers. 4. bull: a term prevalent in the first half of the twentieth century, primarily referring to railroad police but pertaining to regular police officers as well and alluding to the aggressiveness of these officials. 5. cop: A truncation of copper from British English usage, referring to someone who cops, or captures. 6. dick: A derogatory abbreviation of detective. 7. federales: Originally a Spanish term for federal police in Mexico, but jocularly used in the United States to refer to police in general. 8. the feds: A truncation of federal, referring to federal law enforcement personnel. 9. five-O: A term for police derived from the title of the television series Hawaii Five-O, about a special police unit by that name. 10. flatfoot: A reference to a police officer, with several possible origins, including the association that police who walked a beat supposedly would get the medical condition of flat feet. 11. fuzz: Originally a British English term referring to felt-covered helmets worn by London police officers, later borrowed into American English. 12. G-man: A term (derived from â€Å"government man†) from the mid-twentieth century, referring to FBI agents. 13. gendarmes: Originally a French term for rural police officers, borrowed into American English as jocular slang. 14. gumshoe: A term alluding to soft-soled shoes worn by detectives that are more comfortable than hard-soled shoes and/or enable them to follow suspects surreptitiously. 15. the heat: A reference to the pressure that law enforcement officials apply to suspects. 16. the law: A collective term for law enforcement. 17. the man: A term alluding to the imposing authority of law enforcement personnel. 18. pig: A derogatory term dating back to the 1800s that fell into disuse but was revived during the civil rights era. 19. po-po: A reduplicative term referring to police officers. 20. Smokey: A term for law enforcement personnel, derived from an association of the style of hat worn by some state troopers with the one worn by Smokey the Bear. Want to improve your English in five minutes a day? Get a subscription and start receiving our writing tips and exercises daily! Keep learning! Browse the Vocabulary category, check our popular posts, or choose a related post below:20 Great Opening Lines to Inspire the Start of Your StoryBody Parts as Tools of MeasurementIs "Number" Singular or Plural?

Geography of Madagascar

Geography of Madagascar Madagascar  is a large island nation located in the  Indian Ocean  east of Africa and the country Mozambique. It is the fourth largest island in the world and it is an  African country. Madagascars official name is the Republic of Madagascar. The country is sparsely populated with a  population density  of only 94 persons per square mile (36 persons per square kilometer). As such, most of Madagascar is undeveloped, incredibly biodiverse forest land. Madagascar is home to 5% of the worlds species, many of which are native only to Madagascar. Population:  21,281,844 (July 2010 estimate)Capital:  AntananarivoArea:  226,658 square miles (587,041 sq km)Coastline:  3,000 miles (4,828 km)Highest Point:  Maromokotro at 9,435 feet (2,876 m)Lowest Point:  The Indian Ocean History of Madagascar It is believed that Madagascar was uninhabited until the 1st century C.E. when sailors from Indonesia arrived on the island. From there, migrations from other Pacific lands as well as Africa increased and various tribal groups began to develop in Madagascar- the largest of which was the Malagasy. The written history of Madagascar did not begin until the 7th century C.E. when Arabs began setting up trading posts on the islands northern coastal regions.European contact with Madagascar did not begin until the 1500s. At that time, the Portuguese captain, Diego Dias discovered the island while on a voyage to India. In the 17th century, the French established various along the east coast. In 1896, Madagascar officially became a French colony.Madagascar remained under French control until 1942 when  British troops  occupied the area during World War II. In 1943, though the French retook the island from the British and maintained control until the late 1950s. In 1956, Madagascar began moving toward independence and on October 14, 1958, the Malagasy Republic was formed as an independent state within the French colonies. In 1959, Madagascar adopted its first constitution and achieved full independence on June 26, 1960. Government of Madagascar Today, Madagascars government is considered a republic with a legal system based on French civil law and traditional Malagasy laws. Madagascar as an executive branch of government that is made up of a  chief of state  and a head of state, as well as a bicameral legislature consisting of the Senat and the Assemblee Nationale. Madagascars judicial branch of government is comprised of the Supreme Court and the High Constitutional Court. The country is divided into six provinces (Antananarivo, Antsiranana, Fianarantsoa, Mahajanga, Toamasina, and Toliara) for local administration. Economics and Land Use in Madagascar Madagascars economy is currently growing but at a slow pace. Agriculture is the main sector of the economy and employs about 80% of the countrys population. The main agricultural products of Madagascar include coffee, vanilla, sugarcane, cloves, cocoa, rice, cassava, beans, bananas, peanuts, and livestock products. The country does have a small amount of industry of which the largest are: meat processing, seafood, soap, breweries, tanneries, sugar, textiles, glassware, cement, automobile assembly, paper, and petroleum. In addition, with the rise of  ecotourism, Madagascar has seen a rise in tourism and the related service sector industries. Geography, Climate, and Biodiversity of Madagascar Madagascar is considered a part of southern Africa as it is located in the  Indian Ocean east of Mozambique. It is a large island that has a narrow coastal plain with a high plateau and mountains in its center. Madagascars highest mountain is Maromokotro at 9,435 feet (2,876 m).The climate of Madagascar varies based on location on the island but it is tropical along the coastal regions, temperate inland and arid in the south its portions. Madagascars capital and largest city, Antananarivo, which is located in the northern part of the country somewhat away from the coast has a January average high temperature of 82 °F (28 °C) and a July average low of 50 °F (10 °C).Madagascar is most well-known around the world for its rich biodiversity and  tropical rainforests. The island is home to about 5% of the worlds plant and animal species and about 80% of those are endemic or native only to Madagascar. These include all species of  lemurs  and about 9,000 different species of plants. Because of their isolation on Madagascar, many of these endemic species are also threatened or endangered due to increasing  deforestation  and development. To protect its species, Madagascar has many national parks, and nature and wildlife reserves. In addition, there are several  UNESCO certified  World Heritage Sites  on Madagascar called the  Rainforests of the Atsinanana. More Facts about Madagascar Madagascar has a life expectancy of 62.9 years. Its official languages are Malagasy, French, and English. Today, Madagascar has 18 Malagasy tribes, as well as groups of French, Indian Comoran, and Chinese people. References Central Intelligence Agency. (27 May 2010).  CIA - The World Factbook - Madagascar.Infoplease.com. (n.d.).  Madagascar: History, Geography, Government, and Culture, Infoplease.com.United States Department of State. (2 November 2009).  Madagascar.Wikipedia. (14 June 2010).  Madagascar, Wikipedia, the Free Encyclopedia.

Team Model Assignment Example | Topics and Well Written Essays - 1250 words

Team Model - Assignment Example Workers may be indistinct in respect to what strengthening implies in substantial terms. The assignment includes the task to others of the power for specific capacities, errands, and choices. Strengthening is giving representatives the ability to make their employment. The idea of strengthening is nearly interfaced to inspiration and client administration. Representatives need to feel that their activities tally and strengthening are about getting this going (Boynton & amp; Fisher, 2005). Imparted choice making can enhance the quality and acknowledgement of choices, support specialist inspiration and respect toward oneself, expand the feeling of possession and enhance interpersonal relations with representatives (Lencioni, 2002). It is not simple to delegate. A rancher asked why his laborers came specifically to him with their issues and inquiries, skipping directly over the foreman. Upon further reflection, this cultivator understood that he was empowered this conduct by noting inquiries and tackling issues for the representatives. Rather, he required to help his foreman by having workers go to him with these matters (McConkey, 1974). There is a dubious equalization, here, on the other hand. While specialists ought to feel the need to work out normal issues straightforwardly with the ranch foreman, the entryway ought to be left open for laborers to sense that the rancher can hear them out, as well. In one homestead operation, the cultivator made it clear to the workers that his entryway was interested in listening on the off chance that they ever required talking. When the agriculturist would leave the field, be that as it may, the foreman would close that entryway, by advising workers that they were not to ever trouble the producer (Webb, 2002). The only way good team effectiveness can be felt is when the team work as a group to develop individual strength to maximize their

The rising cost of college tuition Research Paper

The rising cost of college tuition - Research Paper Example Some parents and students harbor the feeling that college education is an investment (Butler and Foundation Heritage 3). Therefore, they anticipate returns from the money spent. The societal perspective towards college education is to a given extent pegged towards cost whereas on another extent pegged towards the value that one would achieve out of this investment. The high cost of college education deprives persons from low-income families to acquire college education. Alongside meeting the high cost of living that has skyrocketed in the last few decades, parents have to spend more dollars in meeting the education needs of their children. The result is a continuous struggle by the low-income communities to change their lives. On the other sense, some analysts hold the view high cost of college education derail the prestige and the status of the United States higher education. Many people have started questioning the whether the students get the value for the money they pay in their bid to acquire college education. The rise in cost of college education in various states is quite astonishing given the need to acquire education for the future. ... Arguably, the challenges as well as the demands in the society seem to limit individuals from stopping the quest for college education. Some critics have pointed out that rate of increase in tuition cost have consistently exceeded the overall inflation rate. The view of critics comparing the rise in college cost to the inflation rate concludes that there has to something wrong somewhere with industry whose firms consistently raise prices faster than the inflation rate. It is unusual for firms to experience growth that is much higher than the inflation rate. The rise in the college cost has predisposed many students to seek alternative funding including acquiring education loans that they are not able to pay until they acquire employment. Many students have huge debts, which they have acquired because of their attempt to seek college education. Further, some students have to enroll for work-study program in order to raise tuition fee for their education. Although education is instrume ntal to the lives of the people today, the high college cost seems to favor a given clique in the society. The cost for engineering or medical course, for example is not affordable to a student who comes from a humble background. The fear that some critics tend to harbor is that while everybody seems to appreciate the importance of education, many might not be able to acquire such services in future especially students from low-income communities (Wilson). Largely, this argument seems to point on social economic constraints experienced by the parents and students from less fortunate families. Since money defines the type of course that a student would pursue in college, there are some possibility that some students would settle on pursuing careers that they did not