Thursday, November 14, 2019

innate human violence Essays -- essays research papers

  Ã‚  Ã‚  Ã‚  Ã‚     Ã‚  Ã‚  Ã‚  Ã‚  Phillip Zimbardo, Solomon Asch, Stanley Milgram, and Howard Zinn were/are all gifted psychologists that strived to understand the simple complexities of conformity within an individual’s specific societal structure. Within their own specific areas of psychology, every single one of them came to one simple conclusion that allowed each of them to become the quality of psychologist that they are today, and that is the understanding that the power of the situation can be stronger than the individual. So much so, that the events which occurred in the Abu Gharib prison, were just a matter of time.   Ã‚  Ã‚  Ã‚  Ã‚  Dr. Phillip Zimbardo, world renowned psychologist, current professor at Stanford University, and leader of the 1971 study of the ‘Stanford Prison Experiment’ said â€Å"When you put that set of horrendous work conditions and external factors together, it creates an evil barrel†¦You could put virtually anybody in it [evil barrel] and you’re going to get this kind of behavior† (Edge). Thirty years ago, Zimbardo began a study which demonstrated the power of a certain social situation that distorted the participants’ personal identities and morality in order to understand what specifically made those personalities conform the kind of behavior that most of them, swore they could never be. quote of individual who said that he could not be mean to any living thing.   Ã‚  Ã‚  Ã‚  Ã‚  Another p...

Monday, November 11, 2019

The Nature of Viruses

Viruses are sub-cellular agents of infection that must utilize the cellular machinery of bacteria, plants or animals in order to reproduce. Composed of a single strand of genetic material (DNA or RNA) encased in a protein capsid, a virus is too small to be seen by standard light microscopy; indeed, most are less than one hundredth the size of a bacterium. Specific proteins on the viral capsid attach to receptors on the host cell; this attachment process is essential to viral infectivity and explains why viruses may only infect the cells of certain species or may only infect certain cells or tissues within a given host species. While the infecting virus triggers an immune response in the host, some are capable of suppressing that response by infecting and killing cells that control immunity (e. g. HIV attacks lymphocytes). In addition, while most infected cells are destroyed by viral replication, some viruses enter a latent phase within cells, reactivating in the future to produce chronic or relapsing infections. Many viruses use specific carriers (known as vectors) such as mosquitoes, ticks, bats and rodents that transmit the virus to a susceptible host while others are spread between individuals via blood contact or through respiratory, intestinal or sexual secretions. Of special concern is the fact that mutations within the viral genome may allow viruses to skip from one host (e. g. birds, swine, monkeys) to another (e. g. humans), unleashing pandemics. Many common human infections are produced by viruses; these include the common cold, influenza, mononucleosis, herpes infections (including shingles), viral hepatitis (A, B, C and others), HIV, viral gastroenteritis, conjunctivitis, viral pneumonia, encephalitis, viral meningitis and viral infections of the heart, including pericarditis and myocarditis. While viruses do not respond to antibiotics, specific antiviral agents may control (though not cure) chronic disease (such as HIV, Hepatitis B and Hepatitis C) or may modify the severity of acute infection (as in influenza and herpes infections). However, in most viral infections, treatment is, for now, purely symptomatic and supportive. On the other hand, vaccines are capable of preventing some viral infections (e. g. herpes simplex, measles, mumps, rubella, varicella, Hepatitis B) or reducing the severity of an acute infection (e. g. influenza). Beyond the acute or chronic illness that they produce, some viral infections (such and Hepatitis C and certain strains of herpes simplex) are known to be precursors of malignancy. Finally, many researchers suspect that viruses play a role in the pathogenesis of chronic illnesses such as multiple sclerosis and autoimmune disorders. ttp://naturesblog. blogspot. com/2013/01/the-nature-of-viruses. html The Nature of Viruses Viruses exist in two different states, the extracellular infectious particle or virion and the intracellular state consisting of viral nucleic acid. The capsid may be a polyhedron or a helix, or a combination of both (in some phages). Viruses are infective micro ¬o rganisms that show several differences from typical microbial cells. 1. Size. The size range of viruses is from about 20 to 300 nm. On the whole, viruses are much smaller than bacteria. Most animal viruses and all plant viruses and phages are invisible under the light microscope. 2. Simple structure. Viruses have very simple structures. The simplest viruses are nucleoprotein particles consisting of genetic material (DNA or RNA) surrounded by a protein capsid. In this respect they differ from typical cells which arc made up) of proteins, carbohydrates, lipids and nuc1eicacids. The more complex viruses contain lipids and carbohydrates in addition to proteins and nucleic acids, e. g. the enveloped viruses 3. Absence of cellular structure. Viruses do not have any cytoplasm, and thus cytoplasmic organelles like mitochondria, Golgi complexes, lysosomes, ribosomes, etc. , are absent. They do not have any limiting cell membrane. They utilize the ribosomes of the host cell for protein synthesis during reproduction. 4. No independent metabolism. Viruses cannot multiply outside a living cell. No virus has been cultivated in a cell-free medium. Viruses do not have an independent metabolism. They are metabo ¬lically inactive outside the host cell because they do not posses enzyme systems and protein synthesis machinery. Viral nucleic acid replicates by utilizing the protein synthesis machinery of the host. It codes for the synthesis of a limited number of viral proteins, including the subunits or capsomeres of the capsid, the tail protein and some enzymes concerned Viruses have only one nucleic acid, either DNA or RNA. Typical cells have both DNA and RNA. Genomes of certain with the synthesis or the release of virions. 5. Nucleic acids. RNA viruses can be transcribed into complementary DNA strands in the infected host cells, e. g. Rous Sarcoma Virus (RSV). Such RNA viruses are therefore also called RNA-DNA viruses. 6. Crystallization. Many of the smaller viruses can be crystallized, and thus behave like chemicals. 7. No growth and division. Viruses do not have the power of growth and division. A fully formed virus does not increase in, size by addition of new molecules. The virus itself cannot divide. Only its genetic material (RNA or DNA) is capable of reproduction and that too only in a host cell. It will thus be seen that viruses do not show all the characteris ¬tics of typical living organisms. They, however, possess two funda ¬mental characteristics of living systems. Firstly, they contain nucleic acid as their genetic material. The nucleic acid contains instructions for the structure and function of the virus. Secondly, they can reproduce themselves, even if only by using the host cells synthesis machinery. Viral genomes The nucleic acid comprising the genome may be single-stranded or double-stranded, & in a linear, circular or segmented configuration. Single-stranded virus genomes may be: †¢ positive (+)sense, i. e. of the same polarity (nucleotide sequence) as mRNA †¢ negative (-)sense Ambisense – a mixture of the two. N/B. Virus genomes range in size from approximately 3,200 nucleotides (nt) to approximately 1. 2 million base pairs Unlike the genomes of all cells, which are composed of DNA, virus genomes may contain their genetic information encoded in either DNA or RNA. Since viruses are obligate intracellular parasites only able to replicate inside the appropriate host cells, the genome must contain information encoded in a form which can be recognized & decoded by the particular type of cell parasitized. Thus, the genetic code employed by the virus must match or at least be recognized by the host organism. Similarly, the control signals which direct the expression of virus genes must be appropriate to the host. Many of the DNA viruses of eukaryotes closely resemble their host cells in terms of the biology of their genomes: Some DNA virus genomes are complexed with cellular histones to form a chromatin-like structure inside the virus particle. http://expertscolumn. com/content/nature-viruses http://www. mcb. uct. ac. za/tutorial/virorig. html Viral evolution Viral evolution is a subfield of evolutionary biology and virology that is specifically concerned with the evolution of viruses. Many viruses, in particular RNA viruses, have short generation times and relatively high mutation rates (on the order of one point mutation or more per genome per round of replication for RNA viruses). This elevated mutation rate, when combined with natural selection, allows viruses to quickly adapt to changes in their host environment. Viral evolution is an important aspect of the epidemiology of viral diseases such as influenza (influenza virus), AIDS (HIV), and hepatitis (e. . HCV). It also causes problems in the development of successful vaccines and antiviral drugs, as resistant mutations often appear within weeks or months after the beginning of the treatment. One of the main theoretical models to study viral evolution is the quasispecies model, as the viral quasispecies. | Origins Viruses are ancient. Studies at the molecular level have revealed relationships between viruses infecting organisms from each of the three domains of life, and viral proteins that pre-date the divergence of life and thus the last universal common ancestor. 1] This indicates that viruses emerged early in the evolution of life and existed before modern cells. [2] There are three classical hypotheses on the origins of viruses: Viruses may have once been small cells that parasitised larger cells (the degeneracy hypothesis[3][4] or reduction hypothesis[5]); some viruses may have evolved from bits of DNA or RNA that â€Å"escaped† from the genes of a larger organism (the vagrancy hypothesis[6] or escape hypothesis); or viruses could have evolved from complex molecules of protein and nucleic acid at the same time as cells first appeared on earth (the virus-first hypothesis). 5] None of these hypotheses was fully accepted: the regressive hypothesis did not explain why even the smallest of cellular parasites do not resemble viruses in any way. The escape hypothesis did not explain the complex capsids and other structures on virus particles. The virus-first hypothesis was quickly dismissed because it contravened the definition of viruses, in that they require host cells. [5] Virologists are, however, beginning to reconsider and re-evaluate all three hypotheses. [7][8] http://en. wikipedia. org/wiki/Viral_evolution Evolution Time-line of paleoviruses in the human lineage[9] Viruses do not form fossils in the traditional sense, because they are much smaller than the grains of sedimentary rocks that fossilize plants and animals. However, the genomes of many organism contain endogenous viral elements (EVEs). These DNA sequences are the remnants of ancient virus genes and genomes that ancestrally ‘invaded' the host germline. For example, the genomes of most vertebrate species contain hundreds to thousands of sequences derived from ancient retroviruses. These sequences are a valuable source of retrospective evidence about the evolutionary history of viruses, and have given birth to the science of paleovirology. 9] The evolutionary history of viruses can to some extent be inferred from analysis of contemporary viral genomes. The mutation rates for many viruses have been measured, and application of a molecular clock allows dates of divergence to be inferred. [10] Viruses evolve through changes in their DNA (or RNA), some quite rapidly, and the best adapted mutants quickly outnumber their less fit counterparts. In this sense their evolution is Darwinian, just like that of their host organisms. [11] The way viruses reproduce in their host cells makes them particularly susceptible to the genetic changes that help to drive their evolution. 12] The RNA viruses are especially prone to mutations. [13] In host cells there are mechanisms for correcting mistakes when DNA replicates and these kick in whenever cells divide. [13] These important mechanisms prevent potentially lethal mutations from being passed on to offspring. But these mechanisms do not work for RNA and when an RNA virus replicates in its host cell, changes in their genes are occasionally introduced in error, some of which are lethal. One virus part icle can produce millions of progeny viruses in just one cycle of replication, therefore the production of a few â€Å"dud† viruses is not a problem. Most mutations are â€Å"silent† and do not result in any obvious changes to the progeny viruses, but others confer advantages that increase the fitness of the viruses in the environment. These could be changes to the virus particles that disguise them so they are not identified by the cells of the immune system or changes that make antiviral drugs less effective. Both of these changes occur frequently with HIV. [14] Phylogenetic tree showing the relationships of morbilliviruses of different species[15] Many viruses (for example, influenza A virus) can â€Å"shuffle† their genes with other viruses when two similar strains infect the same cell. This phenomenon is called genetic shift, and is often the cause of new and more virulent strains appearing. Other viruses change more slowly as mutations in their genes gradually accumulate over time, a process known as genetic drift. [16] Through these mechanisms new viruses are constantly emerging and present a continuing challenge to attempts to control the diseases they cause. [17][18] Most species of viruses are now known to have common ancestors, and although the â€Å"virus first† hypothesis has yet to gain full acceptance, there is little doubt that the thousands of species of modern viruses have evolved from less numerous ancient ones. 19] The morbilliviruses, for example, are a group of closely related, but distinct viruses that infect a broad range of animals. The group includes measles virus, which infects humans and primates; canine distemper virus, which infects many animals including dogs, cats, bears, weasels and hyaenas; rinderpest, which infects cattle and buffalo; and other viruses of seals, porpoises and dolphins. 20] Although it not possible to prove which of these rapidly evolving viruses is the earliest, for such a closely related group of viruses to be found in such diverse hosts suggests a possible ancient common ancestor. [21] The Nature of Viruses Viruses are sub-cellular agents of infection that must utilize the cellular machinery of bacteria, plants or animals in order to reproduce. Composed of a single strand of genetic material (DNA or RNA) encased in a protein capsid, a virus is too small to be seen by standard light microscopy; indeed, most are less than one hundredth the size of a bacterium. Specific proteins on the viral capsid attach to receptors on the host cell; this attachment process is essential to viral infectivity and explains why viruses may only infect the cells of certain species or may only infect certain cells or tissues within a given host species. While the infecting virus triggers an immune response in the host, some are capable of suppressing that response by infecting and killing cells that control immunity (e. g. HIV attacks lymphocytes). In addition, while most infected cells are destroyed by viral replication, some viruses enter a latent phase within cells, reactivating in the future to produce chronic or relapsing infections. Many viruses use specific carriers (known as vectors) such as mosquitoes, ticks, bats and rodents that transmit the virus to a susceptible host while others are spread between individuals via blood contact or through respiratory, intestinal or sexual secretions. Of special concern is the fact that mutations within the viral genome may allow viruses to skip from one host (e. g. birds, swine, monkeys) to another (e. g. humans), unleashing pandemics. Many common human infections are produced by viruses; these include the common cold, influenza, mononucleosis, herpes infections (including shingles), viral hepatitis (A, B, C and others), HIV, viral gastroenteritis, conjunctivitis, viral pneumonia, encephalitis, viral meningitis and viral infections of the heart, including pericarditis and myocarditis. While viruses do not respond to antibiotics, specific antiviral agents may control (though not cure) chronic disease (such as HIV, Hepatitis B and Hepatitis C) or may modify the severity of acute infection (as in influenza and herpes infections). However, in most viral infections, treatment is, for now, purely symptomatic and supportive. On the other hand, vaccines are capable of preventing some viral infections (e. g. erpes simplex, measles, mumps, rubella, varicella, Hepatitis B) or reducing the severity of an acute infection (e. g. influenza). Beyond the acute or chronic illness that they produce, some viral infections (such and Hepatitis C and certain strains of herpes simplex) are known to be precursors of malignancy. Finally, many researchers suspect that viruses play a role in the pathogenesis of chronic illnesses such as multiple sclerosis and autoimmune disorders. development of viruses (images)

Saturday, November 9, 2019

Flame Tests Lab Report Essay

The purpose of this lab was to see what colors are characteristic of particular metallic ions in a flame test and use their characteristic color to identify other elements. Another purpose is to understand how fireworks work. This experiment will help one understand how a flame test is performed and that every metal has a unique bright line spectra. This means a bright line spectra can be used to identify any element. This information can be used to identify elements in space to tell whether a planet has oxygen on it or not. If one can tell if a planet has oxygen on it based on its bright line spectra, research could be done to tell if people can live on the planet or not. This would be a huge advance in science if it was possible to tell if people can live on other planets by knowing the elements on the other planets. This would solve the problem of the world becoming over-populated and would help prevent the spread of disease. Introduction- The purpose of this lab was to see what colors are characteristic of particular metallic ions in a flame test and use their characteristic color to identify other elements. Another purpose is to understand how fireworks work. A flame test is used to identify certain metals in a compound or single element.1 When an electron jumps up to a higher energy state the element is in its excited state. Elements are only in their excited for a brief moment. When the electron moves back down to a lower energy state, it emits light and produce a flame color.1 Sometimes there is more than one flame color because an electron might go from the 4s orbital then go to the 2p orbital which means two colors will be produced. Every element emits a different flame color or colors. These colors can be put on a bright line spectra which shows every color that the element produces in a flame test.1 Each element has a unique bright line spectra and thus can be identified by using its bright line spectra. When the element is in a compound, it can be burned to produce the flame. The color of the flame corresponds with each element. When there is an unknown compound, the metal can be found by using previous data from previous tests. By looking at the color you can see if it matches any previous tests and possibly find the name of the metal. Flame tests can also be used to find the color of fireworks one wants to use. By using the metal that emits the color one wants in fireworks, one can get the desired color. This experiment will be conducted using the same spatula, the same Bunsen burner, the same kind of acid and nitrate bonded to every one of the metals. It will also be conducted with everyone in the lab using safety goggles and everyone wearing closed toed shoes. There are no relevant waste concerns in this lab This experiment will show that every element has a different bright line spectra and this can be used to identify elements in space or anywhere. It will also show that flame tests can be used to make certain colored fireworks. I predict that all of the metals tested will emit different colors of light. I also predict that all of the metals will emit a color in the visible spectrum. Materials- †¢Chemical Splash Goggles †¢Well Plate †¢Marker Pen †¢Barium Nitrate (Ba(NO3)2) †¢Copper Nitrate (Cu(NO3)2) †¢Strontium Nitrate (Sr(NO3)2) †¢Lithium Nitrate (Li(NO3)) †¢Potassium Nitrate (K(NO3)) †¢Sodium Chloride (NaCl) †¢Calcium Nitrate (Ca(NO3)2) †¢Nichrome wire loop †¢Beaker, 50-ml †¢Hydrochloric Acid †¢Lab Burner †¢Wash Bottle with distilled water †¢1 Unknown Solution Experimental- The safety equipment was put on. The spatula was cleaned off to make sure there is no residue on it. The Bunsen burner was set up and the flame was adjusted to the desired height. One of the samples was put on the  spatula and the formula of the salt solution was recorded into Table 1. The spatula with the salt solution was put over the flame. The color of the flame was recorded in table 1. The spatula was put in hydrochloric acid, then put into water, and then put over the flame to burn off any residue from the salt solution. This procedure was repeated for the other seven salt solutions and the one unknown solution. The equipment was cleaned off and put away at the end of the experiment Data- Table 1: Table 2: Table 2: Test of Unknown Solution Unknown Color K(NO3) Light Orange Results and Discussion- The data in table 1 shows that every metal tested emits a different color during a flame test. This happens because every metal has a different bright line spectra. Table 2 shows that you can identify a metal in a compound by using a flame test. The metal in the compound was identified by the light orange color seen during the flame test. Table 1 proves my hypothesis to be correct. Conclusion- The purpose of this lab was to see what colors are characteristic of particular metallic ions in a flame test and use their characteristic color to identify other elements. Another purpose was to understand how fireworks work. This experiment can help to identify elements in space to help scientists know whether a planet has oxygen or not. It can also help one determine what metal to use in fireworks to portray a certain color. The experiment was conducted by burning a salt and recording the color of the flame. This experiment showed that every metal emits a different color and this proves the hypothesis to be correct, that every metal emits a different color when put into a flame. This experiment also shows that a metal can be identified by looking at the color of the flame and matching it to previous data results. This also proves my hypothesis to be correct. Table 1 and Table 2  prove both of my hypotheses to be correct. More experiments can be done with machines to find the exact wavelengths of light for every element. If the exact wavelengths can be found, it would be easier to identify elements with a flame test. Possible sources of error in this experiment were that the nichrome wire may not have been fully cleaned off every time, the color might have looked different because of other light sources, and there could have been particles in the bottom of the Bunsen burner. Acknowledgments: The author of this paper thanks Union Springs High School for use of their facilities to conduct this experiment with.

Thursday, November 7, 2019

A Short Comma Quiz

A Short Comma Quiz A Short Comma Quiz A Short Comma Quiz By Mark Nichol Here are five sentences that, through poor punctuation, lead readers astray. Determine how to punctuate them correctly, and then compare your solutions with the ones in the paragraph below each example. 1. â€Å"Now there’s a formula for disaster.† As written, this statement reads like a pitch to be followed by an exclamation point (or inflected as if there is one) in a commercial or an advertisement for a new product: a disaster formula. To correctly communicate that the sentence is a commentary on an ill-advised proposal, the introductory adverb should be set off from the rest of the sentence by a comma: â€Å"Now, there’s a formula for disaster.† (Of course, in context, the latter meaning will be clear, but the comma is still required; it’s a signal that the emphasis is on there. In the pitch, the speaker would emphasize now.) 2. â€Å"United States bombs hotel killing three journalists.† This newspaper headline conjures an image of a rampaging journalist-killing hotel halted, Godzilla-style, by the intervention of US bomber planes. What it means, however, is that US forces accidentally bombed a hotel, resulting in the deaths of three journalists. This meaning is clarified by the simple insertion of a sentence separating the clauses describing cause and effect: â€Å"United States bombs hotel, killing three journalists.† 3. â€Å"The next antiwar demonstration scheduled on April 7 may take aim at companies.† By omitting commas from this sentence, the writer implies that of a series of antiwar demonstrations being sequentially scheduled on April 7, the next one may focus its attention on companies. However, â€Å"scheduled on April 7† is intended as a parenthetical statement (one that could be omitted with no loss of sense), so it must be set off by commas: â€Å"The next antiwar demonstration, scheduled on April 7, may take aim at companies.† 4. â€Å"The corporation’s waterfront plan is criticized by the deputy attorney general who says it violates land-use laws.† This sentence prompts the same misunderstanding as the previous one: the implication that multiple things (or, in this case, people) exist when the writer intends to refer to only one. The false impression that of two or more deputy attorney generals, only one has voiced the stated criticism is eliminated by insertion of a comma: â€Å"The corporation’s waterfront plan is criticized by the deputy attorney general, who says it violates land-use laws.† 5. â€Å"You’ll get a coveted window card autographed by the cast and other memorabilia.† Readers of this sentence might believe that not only the cast but also other memorabilia will autograph the coveted window card. To clarify, however, that the memorabilia will not participate in the signing (but will be provided along with the card signed by the cast), a comma must be inserted; note, too, that I’ve replaced the simple conjunction and with plus, which helps distance the closing phrase from the rest of the sentence: â€Å"You’ll get a coveted window card autographed by the cast, plus other memorabilia.† (â€Å"As well as† would serve the same function.) 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 Punctuation category, check our popular posts, or choose a related post below:Math or Maths?Does "Mr" Take a Period?Drama vs. Melodrama

Tuesday, November 5, 2019

Qualifier Words in English

Qualifier Words in English In English grammar, a  qualifier is a word or phrase  (such as very) that precedes an adjective or adverb, increasing or decreasing the quality signified by the word it modifies.   Here are some of the most common qualifiers in English (though a number of these words have other functions as well): very, quite, rather, somewhat, more, most, less, least, too, so, just, enough, indeed, still, almost, fairly, really, pretty, even, a bit, a little, a (whole) lot, a good deal, a great deal, kind of, sort of. Compare their usage with  intensifiers, which amplify what they modify and are adjectives or adverbs, and  degree adverbs, which can modify verbs and other modifiers. Some qualifiers have more limited usage contexts than others. In the third edition of English Grammar: A University Course, Angela Downing illustrates, using fairly:   Fairly  as a modifier indicates an almost large or reasonable degree of a quality (fairly accurate, fairly well-off). It can be used more easily with favourable and neutral adjectives than with strongly  unfavourable  ones, as with  fairly honest, fairly intelligent, fairly reasonable, but not  ?fairly dishonest, ?fairly foolish, ?fairly [sic] unreasonable: He seems to have a  fairly  good idea  of what he wants to do. (Routledge, 2014) Writing Advice An over-reliance on qualifiers is a sign of amateurish writing. To improve your writing, go through your text and find all the qualifiers. Take them out wherever you can. As needed, revise the sentences or sections relying heavily  on them to give more detail  and more specifics. Use better verbs in the sentences or description to show- rather than tell- whats going on. Then you wont even need the qualifiers, because the imagery or the argument will be painted much more thoroughly for the reader. Qualifiers have their place, Mignon Fogarty advises, but make sure theyre not just taking up space (Grammar Girl Presents the Ultimate Writing Guide for Students, 2011).   The famous writing book by William Strunk Jr. and E.B. White has more strict advice:   Avoid the use of  qualifiers.  Rather, very, little, pretty- these are the leeches that infest the pond of prose, sucking the blood of words. The constant use of the adjective  little  (except to indicate size) is particularly debilitating; we should all try to do a little better, we should all be very watchful of this rule, for it is a rather important one, and we are pretty sure to violate it now and then. (The Elements of Style, 3rd ed. Macmillan, 1979) Qualifiers vs. Adverbs Qualifiers seem to work like adverbs- and theyll even be in the dictionary listed as such- but they differ slightly from your basic adverb.  Thomas P. Klammer and Muriel R. Schulz explained:   Traditional grammarians usually classified qualifiers as adverbs of degree, and at first glance, judging on the basis of meaning and function, this seems reasonable. Degree adverbs- like  completely, absolutely, extremely,  and  excessively- can fit into the same position as the prototype, and they have similar meanings.However, qualifiers are not true adverbs; they fail to fulfill several of the criteria for adverbs....First, qualifiers do not modify verbs....Second, with one or two exceptions, like  really  and  fairly, qualifiers do not have adverb derivational  suffixes. Third, qualifiers cannot be made  comparative  or  superlative....And fourth, qualifiers do not  intensify. (Analyzing English Grammar. Allyn and Bacon, 1992)

Saturday, November 2, 2019

Personal Learning Journal Essay Example | Topics and Well Written Essays - 1000 words

Personal Learning Journal - Essay Example ce, for the tasks assigned to our group, we first determined all the realistic objectives to be achieved as recommended by Hammond, Keenye and Raiffa (2006). Through our leader, we identified the strengths and weaknesses of each team member which guided in the allocation of tasks based on the capabilities of each individual. This not only made the team more effective but also made everyone enjoy their tasks. This experience provided an opportunity for me to apply the Rational Model. Rational Decision-Making Model involves a cognitive process where each step follows a logical order from the step before. Being a cognitive process meant that we had to think through and weigh up and to compare in order to get the best possible results. The six steps in this model start with defining the problem, then identifying the decision criteria, allocating weights to the criteria, developing the alternatives, evaluating the alternatives and finally, selecting the best alternative (Eisenhardt, 1989) . However, the Rational Model assumes that the decision maker has a consistent system of preferences and is aware of all alternatives. The outcome will be completely rational and there will be no time constraints. This model clearly analyzes the experience of distribution of tasks within a group. As much as possible, our leader was well informed about all the team members because of the consultations that made him aware of the strengths and weaknesses of each member, thus helping in the easy and logical distribution of tasks. Another experience involves the forks challenge undertaken during lecture time. The game required us to model up a tall structure using forks. With a time span of 15 minutes, it was a difficult task. We conflicted on whether to build a square or triangle structure causing us to sub-divide into two smaller groups. However, after sometime, we realized that we could not come up with the tallest model without being united. Eventually, our group won, having agreed in

Thursday, October 31, 2019

CZ56 Critical Evaluation of Current Integrated Marketing Essay

CZ56 Critical Evaluation of Current Integrated Marketing Communications Practice - Essay Example First and foremost, most car manufacturers have been forced to adopt a whole marketing picture. Basically, this implies that the market is not a singular unit and the various entities within it have to be given attention to (Aaker, 1997). Secondly, the car manufacturing companies have been forced to re-align their communications and approach things from a consumer viewpoint. This has enabled car manufacturing companies to respond to the various demands of prospective customers (Bagozzi & Dholakia, 2002) Integrated marketing communication has made it possible for automobile companies to achieve different goals at the same time. This in turn enhances their standing in terms of credibility, positioning, network creation, and creating trust among the various prospective clients (Benkler, 2006). This form of communication has also made it possible for companies to conduct corporate social responsibility efficiently. It is also worth noting that innovative marketing strategies have been necessitated by changes in consumer trends. Most clients today are smarter and more sophisticated. These attributes also implies that they are hard to delight (Barwise & Meehan, 2010). Most prospective clients today demand commodities, which are custom made and increasingly adaptable. Thus, there is a need for maximum differentiation that will appeal to the varying needs of various consumers. Understanding a target market is important for any business entity. Failing to properly comprehend a target market can put a huge dent on the prospects of any given company (Castells, 1996). During the pre-launch of the Fiat 500 car, the company did an analysis of the market and realized that most of the potential consumers were relatively young and sophisticated. Thus, the marketing strategy was informed by this demographic of people. The strategy that was adopted by the