Monday, January 27, 2020

Parties Involved In Communication Process

Parties Involved In Communication Process In nowadays marketing, advertising is communication tool for majority of businesses. It is important that companies should communicate effectively and properly to their customers either through Ad, s or other sources. In advertising campaign, we will discuss the communication model used in advertising. The major parties which are involved in communication channel of advertising are; Client/vendor/sponsor/advertisers Advertising agency Media e.g. electronic, print, social etc Audience Advertisers: Clients are those people, companies or organizations that do advertising of their new product, services in order to get attention of their target market. For this purpose, advertisers contacts and hire advertising agencies which do advertising for organization to promote their products. Advertising agencies: Advertising agency is consisted of people who do advertising for companies. Advertising agencies is consisted of different departments which do creative work, media selection, brochure making and many more works. Media: After making an Ad, then media is selected, types of media are; Electronic media e.g. TV Print media e.g. Newspaper, magazines Social media e.g. face book, twitter Media plays an important role because the message is conveyed to target customers by using media because media has access to peoples. Role of advertising agency: Advertising agency plays an important role because advertising agency makes an effective and innovative advertisement which attracts customers and customers gets that product. Advertising agency is one which makes awareness about companys product through advertisements. Advertising agency and client relationship is of great importance because client hire advertising agency for making an Ad. so advertising agency tries to make innovative and creative Ad to attract customers. Advertising agency also help company to choose media for the advertisement. Sender: The party sending the message to the customers is called sender. Sender is also called communicator. The Ad agency is sender. Encoding: The party which put the thoughts into symbolic form. Message: The idea or thoughts which the sender transmits to the receiver. Media: The communication channels thought which the Message moves from sender to receiver. Receiver: The party receiving the message sended by sender. This party is also called audience. Responses: The set of reactions that the receiver has after being exposed to the message. Actually after seeing the Ad, audience comments. Feedback. The part of the receivers response that the receiver communicates back to the sender. (http://www.managerialmarketing.com/index.php?option=com_contenttask=viewid=26Itemid=45) Noise Unplanned static or distortion during the communication process, resulting in the receivers receiving a different message than the sender sent. Sometimes the message which sender wants to communicate to the receiver does not communicate properly to the receiver because of wrong media selection, wrong target market etc. Communication Industry of Pakistan If we look at the typical Pakistani Ads so we will find all these tools in some Ads because in majority of Pakistani Ads. We can find easily noise and lack of feedback. In most of Ads we will find noise and lack of feedback because if we see, many people just see Ads for actors or just time pass. Sometimes audience get bore because of again and again showing of similar Ads. But In 20th century, the Ads quality has changed and we have seen improvement. If we consider the Ads of Telecom sectors, so we can say that everything of the model which was discussed previously are present there with target market and good customers response and feedback. P-2: Identify and discuss current trends in advertising and evaluate its impacts Current Trends Micro-Marketing: A marketing strategy in which advertising efforts are focused on a small group of highly-targeted consumers. Micromarketing requires a company to narrowly define a particular audience by a particular characteristic, such as ZIP code or job title, and tailor campaigns for that particular segment. It can be a more expensive technique due to customization and lack of an economy of scale. Micromarketing grew to prominence in the 1990s, as personal computers allowed easier segmentation and dissemination of information to customers. E-commerce websites are able to track the type of products that a consumer views or purchases, which allows the website to suggest related products. Media Fragmentation: In Pakistan Media fragmentation is happening from 2000 onwards. It includes Radio Stations, Television, Internet, Newspapers, and Mobile Phones. When worldwide broadcast I.e. TV cable in some countries was the only way of transmitting video signals over big geographic areas, the result was that there were massive audiences for a small number of channels. The adding up of satellite TV, and a raise in the number of cable channels, means that audiences are now divided between more operators. This is called fragmentation of the media. Sales Promotion: Sales promotion is any activity that offers incentives for a limited time period induce a desired response, such as trial or purchase, from those who are targeted. Sales promotion is frequently misinterpreted and thought to mean literally anything is done to promote sales. Brand Proliferation: Brand Proliferation is important change in the branding environment is the proliferation of new brands and products, in part spurred by the rise in line and brand extensions. As a result, a brand name may now be identified with a number of different products of varying degrees of similarity. Current trends in Pakistani Ads In Pakistan, currently we are using very less amount of electronic billboards. But we hope that in near future these electronic billboard will be more in work than simple billboards. Internet growth is increasing very quickly all over the world and now Pakistani people are also getting familiar with the Internet in their normal routine life. Thus, this is the reason that most of the companies are advertising on the Internet through pop up windows advertising, advertising on both sides of the window, Google advertising etc, with the purpose that many people can watch their advertisements every where on their computers. The cost of Electronic Billboard are cheaper than the simple billboards as on electronic billboards different advertisements will be run one by one, so the overall cost will be less. In European countries, electronic billboard are very common while in Pakistan, these electronic billboards are not the ordinary way of advertising. In Pakistan, still many companies rely on TV advertisements, as Television advertisements are still valuable way of advertising. P-3: Discuss the models of advertising and its impacts on customer behavior AIDA MODEL Attention: The customers attention is got by the saving which is a large amount. Interest: Then the sentence mazay ki offer creates interest of the customers and their emotions are triggered. They feel that the offer is a good one because of the inflation now a day. Desire: The benefit the customers receive is that on every packing of the product they can save if they go for large pack they will have more saving which creates a desire to save more. Action: At the bottom left of the ad it is written that the offer is for some short time which gives enough motivation to the customers to go for it. MODEL 2 Awareness: The awareness I created that we have new offer for our customers. Knowledge: The knowledge is shared with the customers that the new offer which is named as mazy ki offer is on every pack and it is for some short span of time. Liking and preference: The ad creates liking because of the saving which is of large amount on such product. Conviction and purchase: The image of the product is good in the mind of customers and they are giving such offer so the purchase will be increase. AIDA model Attention: Warid bol anmol the sentence is enough to grab the attention because he will think there will be a good offer on calling Interest: The interest is created by giving the customers relaxation from activation and there are no conditions on the offer. Desire: In my opinion the add fails to make the customers desire to go for the offer because no info is given about how much balance will they receive. Action: Giving offer that the balance will be given at once motivating the customers to go for that offer

Sunday, January 19, 2020

A word on racism

Past week was United Nations day. The point of this holiday is to celebrate our heritage, to bring conformity, to create unity among a species which finds the very notion difficult. It is a holiday meant to put aside differences and to reach out to those next to you. To take their hands and with them lead forward into a place where those among us can be treated as equals. That was the reason for the hands. There were so many hands; each a different color, pasted all over the walls, the table, the pillar holding up the ceiling in the small lounge area. Each one bore a name. As I walked past, on my way to a class to which I was desperately late, I passed a table. At that table sat five or so students, each with a hand, each writing their name as well as their race upon it. â€Å"Come, make a hand!† the girl at the table cheerily ordered me as she passed me a limp cardboard cutout of an appendage. I shook my head. â€Å"No thanks.† At that I got an odd look. It was as if she were wondering, ‘why wouldn't someone want to make one of these?' She was puzzled, but persistent. She shoved the hand toward me again and I bristled. Not the best move, but involuntary. â€Å"I said I don't want to make one.† I turned my shoulder. I tried my best to convey with my body language, my eyes, my tone of voice, that I would not be swayed. She frowned. Scowled almost. â€Å"You must be some kind of racist. Whatever.† â€Å"Give me that.† I grabbed at the cardboard cutout almost fiercely. I sat at the table, pulled an assortment of markers toward me, and began writing. To hell with being late to class. I didn't care anymore. It took me but seconds to finish the hand and to give it back to the girl. She frowned at me once again. â€Å"This isn't what you're supposed–† â€Å"–I have a right to have it up there just like everyone else.† She shrugged. It seemed she sensed she had lost the argument. She took the hand and stapled it to a sheet of blue paper hanging on the wall. I found then, and only then, that I was disgusted by the whole principle. How is it, as a society, that the things that are supposed to make us the same turn out to make us different? It was that factor alone that disgusted me. Those hands were meant to bring us together, but instead they merely focused on our differences. Black. White. Hispanic. We are not color blind. We have an innate ability to separate. To label as good or bad the color of one's skin. On a holiday meant to represent unity, we were instead separating ourselves. That was the reason I made my hand different. The reason I ignored the boundaries and instead labeled the hand with something that the girl considered to be ‘racist'. The reason I chose to be equal. After all, how are we to be equal if we only focus on the things that make us unequal? It should not be the color of one's skin but the quality of that person that makes each unique. That hand said only one thing.

Saturday, January 11, 2020

Infrared Film and Thermography Essay

Thermogram of a traditional building in the background and a â€Å"passive house† in the foreground Infrared thermography (IRT), thermal imaging, and thermal video are examples of infrared imaging science. Thermal imaging cameras detect radiation in the infrared range of the electromagnetic spectrum (roughly 9,000–14,000 nanometers or 9–14  µm) and produce images of that radiation, called thermograms. Since infrared radiation is emitted by all objects above absolute zero according to the black body radiation law, thermography makes it possible to see one’s environment with or without visible illumination. The amount of radiation emitted by an object increases with temperature; therefore, thermography allows one to see variations in temperature. When viewed through a thermal imaging camera, warm objects stand out well against cooler backgrounds; humans and other warm-blooded animals become easily visible against the environment, day or night. As a result, thermography is particularly useful to military and other users of surveillance cameras. Thermography has a long history, although its use has increased dramatically with the commercial and industrial applications of the past fifty years. Government and airport personnel used thermography to detect suspected swine flu cases during the 2009 pandemic.[1] Firefighters use thermography to see through smoke, to find persons, and to localize the base of a fire. Maintenance technicians use thermography to locate overheating joints and sections of power lines, which are a sign of impending failure. Building construction technicians can see thermal signatures that indicate heat leaks in faulty thermal insulation and can use the results to improve the efficiency of heating and air-conditioning units. Some physiological changes in human beings and other warm-blooded animals can also be monitored with thermal imaging during clinical diagnostics. Thermogram of cat. The appearance and operation of a modern thermographic camera is often similar to a camcorder. Often the live thermogram reveals temperature variations so clearly that a photograph is not necessary for analysis. A recording module is therefore not always built-in. Non-specialized CCD and CMOS sensors have most of their spectral sensitivity in the visible light wavelength range. However by utilizing the â€Å"trailing† area of their spectral sensitivity, namely the part of the infrared spectrum called near-infrared (NIR), and by using off-the-shelf CCTV camera it is possible under certain circumstances to obtain true thermal images of objects with temperatures at about 280 °C and higher.[2] Specialized thermal imaging cameras use focal plane arrays (FPAs) that respond to longer wavelengths (mid- and long-wavelength infrared). The most common types are InSb, InGaAs, HgCdTe and QWIP FPA. The newest technologies use low-cost, uncooled microbolometers as FPA sensors. Their resolution is considerably lower than that of optical cameras, mostly 160Ãâ€"120 or 320Ãâ€"240 pixels, up to 640Ãâ€"512 for the most expensive models. Thermal imaging cameras are much more expensive than their visible-spectrum counterparts, and higher-end models are often export-restricted due to the military uses for this technology. Older bolometers or more sensitive models such as InSb require cryogenic cooling, usually by a miniature Stirling cycle refrigerator or liquid nitrogen. | Thermal Energy This article needs additional citations for verification. Please help improve this article by adding citations to reliable sources. Unsourced material may be challenged and removed. (July 2008) | Thermal images, or thermograms, are actually visual displays of the amount of infrared energy emitted, transmitted, and reflected by an object. Because there are multiple sources of the infrared energy, it is difficult to get an accurate temperature of an object using this method. A thermal imaging camera is capable of performing algorithms to interpret that data and build an image. Although the image shows the viewer an approximation of the temperature at which the object is operating, the camera is actually using multiple sources of data based on the areas surrounding the object to determine that value rather than detecting the actual temperature. This phenomenon may become clearer upon consideration of the formula Incident Energy = Emitted Energy + Transmitted Energy + Reflected Energy where Incident Energy is the energy profile when viewed through a thermal imaging camera. Emitted Energy is generally what is intended to be measured. Transmitted Energy is the energy that passes through the subject from a remote thermal source. Reflected Energy is the amount of energy that reflects off the surface of the object from a remote thermal source. If the object is radiating at a higher temperature than its surroundings, then power transfer will be taking place and power will be radiating from warm to cold following the principle stated in the Second Law of Thermodynamics. So if there is a cool area in the thermogram, that object will be absorbing the radiation emitted by the warm object. The ability of both objects to emit or absorb this radiation is called emissivity. Under outdoor environments, convective cooling from wind may also need to be considered when trying to get an accurate temperature reading. This thermogram shows a fault with an industrial electrical fuse block. The thermal imaging camera would next employ a series of mathematical algorithms. Since the camera is only able to see the electromagnetic radiation that is impossible to detect with the human eye, it will build a picture in the viewer and record a visible picture, usually in a JPG format. In order to perform the role of noncontact temperature recorder, the camera will change the temperature of the object being viewed with its emissivity setting. Other algorithms can be used to affect the measurement, including the transmission ability of the transmitting medium (usually air) and the temperature of that transmitting medium. All these settings will affect the ultimate output for the temperature of the object being viewed. This functionality makes the thermal imaging camera an excellent tool for the maintenance of electrical and mechanical systems in industry and commerce. By using the proper camera settings and by being careful when capturing the image, electrical systems can be scanned and problems can be found. Faults with steam traps in steam heating systems are easy to locate. In the energy savings area, the thermal imaging camera can do more. Because it can see the radiating temperature of an object as well as what that object is radiating at, the product of the radiation can be calculated using the Stefan–Boltzmann constant. Emissivity Emissivity is a term representing a material’s ability to emit thermal radiation. Each material has a different emissivity, and it can be difficult to determine the appropriate emissivity for a subject. A material’s emissivity can range from a theoretical 0.00 (completely not-emitting) to an equally-theoretical 1.00 (completely emitting); the emissivity often varies with temperature. An example of a substance with low emissivity would be silver, with an emissivity coefficient of .02. An example of a substance with high emissivity would be asphalt, with an emissivity coefficient of .98. A black body is a theoretical object which will radiate infrared radiation at its contact temperature. If a thermocouple on a black body radiator reads 50  °C, the radiation the black body will give up will also be 50  °C. Therefore a true black body will have an emissivity of Thermogram of a snake held by a human. Since there is no such thing as a perfect black body, the infrared radiation of normal objects will appear to be less than the contact temperature. The rate (percentage) of emission of infrared radiation will thus be a fraction of the true contact temperature. This fraction is called emissivity. Some objects have different emissivities in long wave as compared to mid wave emissions. Emissivities may also change as a function of temperature in some materials.[3] To make a temperature measurement of an object, the thermographer will refer to the emissivity table to choose the emissivity value of the object, which is then entered into the camera. The camera’s algorithm will correct the temperature by using the emissivity to calculate a temperature that more closely matches the actual contact temperature of the object. If possible, the thermographer would try to test the emissivity of the object in question. This would be more accurate than attempting to determine the emissivity of the object via a table. The usual method of testing the emissivity is to place a material of known high emissivity in contact with the surface of the object. The material of known emissivity can be as complex as industrial emissivity spray which is produced specifically for this purpose, or it can be as simple as standard black insulation tape, emissivity 0.97. A temperature reading can then be taken of the object with the emissivity level on the imager set to the value of the test material. This will give an accurate value of the temperature of the object. The temperature can then be read on a part of the object not covered with the test material. If the temperature reading is different, the emissivity level on the imager can be adjusted until the object reads the same temperature. This will give the thermographer a much more accurate emissivity reading. There are times, however, when an emissivity test is not possible due to dangerous or inaccessible conditions. In these situations the thermographer must rely on tables. Difference between infrared film and thermography IR film is sensitive to infrared (IR) radiation in the 250 °C to 500 °C range, while the range of thermography is approximately -50 °C to over 2,000 °C. So, for an IR film to work thermographically, it must be over 250 °C or be reflecting infrared radiation from something that is at least that hot. (Usually, infrared photographic film is used in conjunction with an IR illuminator, which is a filtered incandescent source or IR diode illuminator, or else with an IR flash (usually a xenon flash that is IR filtered). These correspond with â€Å"active† near-IR modes as discussed in the next section. Night vision infrared devices image in the near-infrared, just beyond the visual spectrum, and can see emitted or reflected near-infrared in complete visual darkness. However, again, these are not usually used for thermography due to the high temperature requirements, but are instead used with active near-IR sources. Starlight-type night vision devices generally only magnify ambient light. Passive vs. active thermography All objects above the absolute zero temperature (0 K) emit infrared radiation. Hence, an excellent way to measure thermal variations is to use an infrared vision device, usually a focal plane array (FPA) infrared camera capable of detecting radiation in the mid (3 to 5 ÃŽ ¼m) and long (7 to 14 ÃŽ ¼m) wave infrared bands, denoted as MWIR and LWIR, corresponding to two of the high transmittance infrared windows. Abnormal temperature profiles at the surface of an object are an indication of a potential problem.[4] Thermal imaging camera & screen. Thermal imaging can detect elevated body temperature, one of the signs of the virus H1N1 (Swine influenza). In passive thermography, the features of interest are naturally at a higher or lower temperature than the background. Passive thermography has many applications such as surveillance of people on a scene and medical diagnosis (specifically thermology). In active thermography, an energy source is required to produce a thermal contrast between the feature of interest and the background. The active approach is necessary in many cases given that the inspected parts are usually in equilibrium with the surroundings. Advantages of thermography * It shows a visual picture so temperatures over a large area can be compared * It is capable of catching moving targets in real time * It is able to find deteriorating, i.e., higher temperature components prior to their failure * It can be used to measure or observe in areas inaccessible or hazardous for other methods * It is a non-destructive test method * It can be used to find defects in shafts, pipes, and other metal or plastic parts[5] * It can be used to detect objects in dark areas * It has some medical application, essentially in kinesiotherapy Limitations and disadvantages of thermography * Quality cameras often have a high price range (often US$ 3,000 or more), cheaper are only 40Ãâ€"40 up to 120Ãâ€"120 pixels * Images can be difficult to interpret accurately when based upon certain objects, specifically objects with erratic temperatures, although this problem is reduced in active thermal imaging[6] * Accurate temperature measurements are hindered by differing emissivities and reflections from other surfaces[7] * Most cameras have  ±2% accuracy or worse in measurement of temperature and are not as accurate as contact methods [8] * Only able to directly detect surface temperatures * Condition of work, depending of the case, can be drastic: 10 °C of difference between internal/external, 10km/h of wind maximum, no direct sun, no recent rain, Applications Kite aerial thermogram of the site of Ogilface Castle, Scotland. * Condition monitoring * Digital infrared thermal imaging in health care * Medical imaging * Infrared mammography * Archaeological Kite Aerial Thermography: Kite_aerial_photography * Thermology * Veterinary Thermal Imaging * Night vision * UAV Surveillance[9] * Stereo vision[10] * Research * Process control * Nondestructive testing * Surveillance in security, law enforcement and defence * Chemical imaging * Volcanology[11][12] * Building [13] Thermal imaging cameras convert the energy in the infrared wavelength into a visible light display. All objects above absolute zero emit thermal infrared energy, so thermal cameras can passively see all objects, regardless of ambient light. However, most thermal cameras only see objects warmer than -50 °C. The spectrum and amount of thermal radiation depend strongly on an object’s surface temperature. This makes it possible for a thermal imaging camera to display an object’s temperature. However, other factors also influence the radiation, which limits the accuracy of this technique. For example, the radiation depends not only on the temperature of the object, but is also a function of the emissivity of the object. Also, radiation originates from the surroundings and is reflected in the object, and the radiation from the object and the reflected radiation will also be influenced by the absorption of the atmosphere.

Thursday, January 2, 2020

Annotated Bibliography On The Gun Of The Teeth The...

Annotated Bibliography Armed to the teeth: The worldwide plague of small arms [Video file]. (2000). In Films On Demand. Retrieved February 11, 2016, from fod.infobase.com There is one gun for every ten people on earth today. The people who supports gun control believe that if we are trying to save the world, guns for wars should not be shipped around for individual uses. There have been around 400 million deaths due to small arms and conflicts since the fall of the Berlin Wall. Once a person owns a gun, it is very rare that they will be willing to give the gun up. In South Africa, guns have been melted down, blown up, and cut into pieces. If there were stricter gun control laws, the world could be a safer place. C. Fraser, S. (n.d). C. Fraser Smith: Why gun-control advocates keep trying. Daily Record, The (Baltimore, MD), Gun control advocates believe they should keep trying because they think they will eventually get stricter gun control laws. They believe if there were stricter gun control laws such as people trying to get a gun are required to wait 30 days rather than 3 days. They believe if someone who had to wait 30 days to get a gun will have time to actually think about their reasons for wanting a gun and the consequences of having that gun as well. In Baltimore, Charlestown, and Chattanooga the number of people with guns continues to grow. EVERITT, L., PRATT, E. (2015). Does the U.S. Need Tougher Gun-Control Laws?. New York Times Upfront, 147(12), 22. Some people