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BIO 100 College of San Mateo Mitosis and Meiosis Video Overview

BIO 100 College of San Mateo Mitosis and Meiosis Video Overview.

DirectionsPlease watch a Mitosis and Meiosis video (Links to an external site.), produced by the Amoeba Sisters, with closed-captions available.Then, answer the following questions about the video in a short writing assignment.What is mitosis used for in the human body?What is meiosis used for in the human body?How many chromosomes do body cells in humans have? What about gametes?Why is meiosis called a reduction division?During which phase is your DNA duplicated?What does PMAT stand for?How many times does a nucleus undergo PMAT during Meiosis?Ultimately, how many gametes are made after one round of meiosis?Which two processes lead to variations in the genetic makeup of the gametes?Grading RubricOverall, you need 200 words minimum
BIO 100 College of San Mateo Mitosis and Meiosis Video Overview

Florida International University Prosecutorial Reforms Law Question.

Provide a comprehensive reflection of your critical thoughts on the topic at hand.Essay should be between 1,000-1,200 words.It should be typed in Calibri or New Times Roman (12-point font) and double-spaced. The total required word count makes it about 4 pages in length. Please make sure to use the word count feature in Microsoft Word to ensure you meet the minimum requirement regardless of the number of pages.Follow the traditional essay formatting:IntroductionBody ParagraphsConclusionFor in-text citations and referencing, you can use MLA or APA.Topic: Prosecutorial Reforms and ChallengesProsecutorial Reforms: Based on the research article (Learning Materials below), what are some of the challenges prosecutors face when attempting to implement new reforms?Organization–about equally divided by:Overview and review of reforms, classic vs. contemporary prosecutorial systemsYour answer and explanation to the posted questionLearning MaterialsResearch Article: Tempting Expectations: A Qualitative Study of Prosecutorial Reform (ATTACHED) Note: Students can use other resources but be sure the learning material is included as the central source.Rubric also attached
Florida International University Prosecutorial Reforms Law Question

Now once you have a Flexible Manufacturing System in place, it cannot function in isolation. The department has to make its other processes and work conditions conducive enough to take full advantage of FMS. There are a lot of other design variables involved in the decision making process. It is very important for every manager in charge of FMS to address the question “What are the activities an FMS adopter has to carry out in order not only to implement an FMS but also to realize the requisite organizational conditions; and what are the possibilities for the adopter to organize this manufacturing innovation process effectively?” Stating a few examples of the extraneous factors: Maintenance Department Process planning, Production planning, and quality control processes The people carrying out these processes and production resources used to make these processes feasible The organizational arrangements used to divide and coordinate the processes Introduction A Flexible Manufacturing System (FMS) is a manufacturing system in which there is a certain degree of flexibility that allows the system to react in the case of changes, whether predicted or unpredicted. According to Maleki [1] , flexibility is the speed at which a system can react to and accommodate change. To be considered flexible, the flexibility must exist during the entire life cycle of a product, from design to manufacturing to distribution. Flexible Manufacturing System is a computer-controlled system that can produce a variety of parts or products in any order, without the time-consuming task of changing machine setups. The flexibility being talked about is generally considered to fall into two categories, which both contain numerous subcategories [2] . The first category, Machine Flexibility, covers the system’s ability to be changed to produce new product types, and ability to change the order of operations executed on a part. The second category is called Routing Flexibility, which consists of the ability to use multiple machines to perform the same operation on a part, as well as the system’s ability to absorb large-scale changes, such as in volume, capacity, or capability. The main advantage of an FMS is its high flexibility in managing manufacturing resources like time and effort in order to manufacture a new product. The best application of an FMS is found in the production of small sets of products like those from a mass production. FM systems are supposed to provide the manufacturer with efficient flexible machines that increase productivity and produce quality parts. However, FM systems are not the answer to all manufacturers’ problems. The level of flexibility is limited to the technological abilities of the FM systems. FM systems are being used all over the manufacturing world and though out industries. A basic knowledge of this kind of technology is very important because FM systems are involved in almost everything that you come in contact with in today’s world. From the coffee maker to your remote control FM systems are used all over. History of Flexible Manufacturing Systems At the turn of the twentieth century, FMS did not exist. There was no pressing need for efficiency because the markets were national and there was no foreign competition. Manufacturers could tell the consumers what to buy. During that period, Henry Ford had been quoted as saying “People can order any colour of car as long as it is black.” All the power remained in the hands of the manufacturer and the consumers hardly had any choices. However, after the Second World War a new era in manufacturing was to come. The discovery of new materials and production techniques increased quality and productivity. The war led to the emergence of open foreign markets and new competition. The focus of the market shifted from manufacturer to consumer. According to Maleki, the first FM system was patented in 1965 by Theo Williamson who made numerically controlled equipment. Examples of numerically controlled equipment are like CNC lathes or mills which Kusiak says are varying types of FM systems. 1980s 1970s 1960sDuring the 1970s, with the ever-growing developments in the field of technology, manufacturers started facing difficulties and hence, FM systems became main-stream in manufacturing to accommodate new changes whenever required. During the 1980s for the first time manufacturers had to take in consideration efficiency, quality, and flexibility to stay in business. According to Hoeffer, the change in manufacturing over time was due to several factors. (Hoeffer, 1986) Increased international competition, The need to reduce manufacturing cycle time, and Pressure to cut the production cost. Everyday new technologies are being developed and even FM systems are evolving. However, overtime FM systems have worked for many manufacturers and hence will be around for the time to come. The Process of Flexible Manufacturing Systems As has been discussed above the flexible manufacturing system can be broadly classified into two types, depending on the nature of flexibility present in the process, Machine Flexibility and Routing Flexibility FMS systems essentially comprise of three main systems. [3] The processing stations: These are essentially automated CNC machines. The automated material handling and storage system: These connect the work machines to optimize the flow of parts. Central control computer: This controls the movement of materials and machine flow. The FMS as a system stands out because it does not follow a fixed set of process steps. The process sequence changes according to requirement to allow maximum efficiency. Sequence of material flow from one tool to another is not fixed nor is the sequence of operations at each tool fixed. Key Features of the Process [4] Some characteristics that differentiate FMS from conventional manufacturing systems are their technical flexibility, i.e., the ability to quickly change mix, routing, and sequence of operations within the parts envelope and also complexity resulting from the integration, mechanization, and reprogrammable control of operations i.e., parts machining, material handling, and tool change. Some key features of the process are discussed below. Cell: It consists of several groupings of two or more automated machines within a company. Each grouping is called a cell. All the machines present are controlled by a computer. They are programmed to change quickly from one production run to another. A key feature is the automated flow of materials to the cell and the automated removal of the finish item. Several cells are linked together by means of an automated materials-handling system, and the flow of goods is controlled by a computer. In this manner a computer-integrated manufacturing process is initiated. Random bypass capability: The material handling system has a random bypass capability, i.e. a part can be moved from any tool in the interconnected system to another because the transport system can bypass any tool along the path, on demand. This implies: Each part can traverse a variable route through the system. Again, this flexibility in material handling, in combination with multipurpose tools, makes it possible for a flexible manufacturing system to process a great diversity of parts. Automation: Computers are the heart of automation. They provide the framework for the information systems which direct action and monitor feedback from machine activities. As FMS involve a wide variety of components, each with their own type of computer control, many of these computer components are installed as islands of automation, each with a computer control capable of monitoring and directing the action. Each of the computer controls has its own communication protocol based on the amount of data needed to control the component. Thus, the task of computer integration is to establish interfaces and information flow between a wide range of computer types and models. Computer software provides the ability to transmit timely and accurate status information and to utilize information which has been communicated from other computers in FMS. Component redundancy: In FMS as the equipment is highly integrated, the interruptions of one component affect other components. This results in a greater time to trace the problem when compared with isolated components. In some cases, the interruption might be due to some other integration effect, and greater downtime may result before the actual cause of the problem is found. In this situation, component redundancy provides flexibility with the opportunity for choice, which exists when there are at least two available options. Flexible manufacturing contains functionally equivalent machinery. So in case of failure of one machine the process flow is directed towards a functionally equivalent machine. Multiple Paths: A path in flexible manufacturing represents a part sequence and requisite fixtures to complete its required operations. In a conventional machine environment, only one path exists for a part because a single fixture remains at a single machine. However, this is not the case within flexible manufacturing systems, where there are multiple paths. The number of paths which are present within flexible manufacturing is a measure of the degree of flexibility. Obviously, the higher the number of paths, higher is the degree of flexibility. Flexibility ranks high in Japan′s manufacturing strategy but not in America′s. A true flexible factory will not only build different versions of the same car, like a coupé or a station wagon, on the same production line, but also a completely different car. This is what the Japanese factories are setting out to do. The cost of one factory can be spread across five or ten cars. Apart from lower fixed cost, it is also less painful to stop making one of those cars if it fails to sell. Stand – Alone Machine Flexible Manufacturing System Transfer Lines High Medium Low Low Medium High Productivity Volume Part VariationsFMS as a system of manufacturing process can be compared to other processes in terms of the product volume it generates and its capacity for creating part variations. The figure above depicts the position of FMS vis-à-vis that of stand-alone machine and transfer lines. The horizontal axis represents production volume level and the vertical axis shows the variability of parts. Transfer lines are very efficient when producing parts at a large volume at high output rate, whereas stand-alone machines are ideally suited for variation in workplace configuration and low production rate. In terms of manufacturing efficiency and productivity, a gap exists between the high production rate transfer machines and the highly flexible machines. FMS, has been regarded as a viable solution to bridge the gap and as a gateway to the automated factory of the future. The Process: With Reference to particular companies [5] Though the features of this manufacturing innovation process are similar across all types of firms, the manner in which they are adopted and implemented depends on product type, manufacturing, maintenance, process planning and quality control processes. It is also contingent upon the people carrying out these processes; the productive resources being used and the organizational arrangements used to divide and coordinate the processes distinguished. The description of the layout of a company that has adopted the flexible manufacturing system gives a clear idea of how the system works in practical life. It has all the features as mentioned before of a typical FMS. Flexible Manufacturing System at The Hattersley Newman Hender (H.N.H.) This company, located in U.K. manufactures high and low pressure bodies and caps for water, gas and oil valves. These components require a total of 2750 parts for their manufacture. That is why they decided to go for the system of F.M.S. to fulfill their machining requirements in a single system. The process described below shows how FMS is used for efficient production for this company. Their FMS consists of primary and secondary facilities. The primary facilities include 5 universal machining centres and 2 special machining centres. The secondary facilities consist of tool settings and manual workstations. System layout and facilities: Primary facilities: Machining centres: The FMS contains two 5-axis horizontal ‘out-facing’ machines and five 4-axis machining centres under the host control. All the machines have a rotating pallet changer each with two pallet buffer stations. These stations transfer pallets to and from the transport system which consist of 8 automated guided vehicles. The 5 universal machining centres have 2 magazines with capacity of 40 tools in each magazine. The special purpose out-facing machines (OFM) each have one magazine having a capacity of 40 tools. The tool magazines can be loaded by sending instructions to the tool setting room either from the host computer or the machine’s numerical controller. Processing centres: The system contains two processing centres – a wash machine and two manual workstations. Wash machines: It contains two conveyor belts where one is for input and one for output of pallets, each with a capacity of three pallets to transfer the pallets. The wash booth has a capacity of three pallets. The pallets are washed in the booth and turned upside-down to drain out the water. Then they are dried with blown air. Manual workstations (ring fitting area): The operator fits metal sealing rings into the valve bodies at the manual workstations. He receives work instructions via computer interface with the host. Secondary facilities: Auxiliary stations: Load/unload stations: The FMS has four-piece-part load and unload stations. Loading and unloading is performed at these stations with the instructions again received via computer interface with the host. Fixture-setting station: At these stations the fixtures are readjusted to accommodate different piece parts. Administration of tools: Tools are assembled manually. The tool-setting machine checks the dimensional offsets of the tools and generates a bar code for further identification of the tool that has been set. Auxiliary facilities: Transport system: The transport system consists of a controller and 8 automated guided vehicles (AGV). The system also contains an A.G.V. battery charging area. Buffer stores: The FMS has 20 buffer stores in order to store the empty and loaded pallets while they are waiting to be taken to another transfer station (i.e. a load/unload station or a machine tool etc.). Maintenance Area: This facility caters to pallets that may be damaged or need servicing or for storing scrapped piece-parts. Raw Material Stores: These stores are located in front of the load / unload stations and are used to store the raw materials (like forged valve bodies etc). The store is served by two fork-lift-stacker cranes and motor roller conveyors. It has a capacity of 80 containers. Fixture store: The fixtures that are not stored in FMS are stored here. It has a capacity of storing 120 fixtures. The store is served by a stacker crane and motor roller conveyors. Flexible Manufacturing System at TAMCAM Computer Aided Manufacturing (TAMCAM) Lab. This is an example of flexible manufacturing system that is used to describe the TAMCAM Simulation-Based Control System (TSCS) [6] . This system is located within the TAMCAM Computer Aided Manufacturing (TAMCAM) lab. The system consists of three CNC milling machines, one CNC turning centre, two industrial robots, and an automated cart based conveyor system. In addition to the automated equipment, human operators are used to load and unload some machines and perform assembly and inspection tasks. Advantages of Flexible Manufacturing System Why would firms embrace flexible manufacturing systems? What benefits does FMS provide? Answers to these two questions are important to the success of flexible manufacturing systems. It is important to understand the impacts on product life cycle, direct labour input and market characteristics. Various advantages arise from using flexible manufacturing systems. [7] Users of these systems enlist many benefits: Less scrap Fewer workstations Quicker changes of tools, dies, and stamping machinery Reduced downtime Improved quality through better control over it Reduced labour costs due to increase in labour productivity Increase in machine efficiency Reduced work-in-process inventories Increased capacity Increased production flexibility Faster production Lower- cost/unit Increased system reliability Adaptability to CAD/CAM operations Since savings from these benefits are sizeable, a plethora of examples from the manufacturing industry are available to illustrate these benefits. “A major Japanese manufacturer, by installing a flexible manufacturing system, has reduced the number of machines in one facility from 68 to 18, the number of employees from 215 to 12, space requirements from 103000 square feet to 30000 and processing time from 35 days to a 1.5 days” “Ford has poured $4,400,000 into overhauling its Torrence Avenue plant in Chicago, giving it flexible manufacturing capability. This will allow the factory to add new models in as little as two weeks instead of two months or longer. The flexible manufacturing systems used in five of Ford Motor Company’s plants will yield a $2.5 billion savings. By the year 2010, Ford will have converted 80 percent of its plants to flexible manufacturing.” The benefits enlisted above are the operational benefits. [8] Flexible Manufacturing Systems also give rise to benefits in terms of strategy for the firm. Operational Benefits Strategic Benefits Lower Costs per unit A source of competitive advantage in present and future. Lesser workstations Less space in plant required. Reduced Inventories Less of Storage Space. Plant Layout gets simplified. The space is freed up for other activities. Increase in labour productivity Lesser workforce required. Operational Flexibility Ability to meet varying customer demands in terms of numbers (seasonality) and choices. Improved Quality Increased customer satisfaction Less inspection costs Lesser lead time Increased Machine Efficiency Less technical workforce for handling maintenance and repair Less Scrap and Rework Consistent Production Process On a macro level, these advantages reduce the risk of investing in the flexible manufacturing system as well as in ongoing projects in such a firm. Let us look at how flexibility helps firms. To maximize production for a given amount of gross capacity, one should minimize the interruptions due to machine breakdowns and the resource should be fully utilized. FMS permits the minimization of stations′ unavailability, and shorter repair times when stations fail. Preventive maintenance is done to reduce number of breakdowns. Maintenance is done during off hours. This helps to maximize production time. Cost of maintaining spare part inventories is also reduced due to the fact that similar equipment can share components. Hence we can see that higher the degree of flexibility of the workstation, the lower the potential cost of production capacity due to station unavailability. To make a product every day, the trade – off between inventory cost and setup cost becomes important. However, each time the workstation changes its function, it incurs a set-up delay. Through flexibility one can reduce this set-up cost. [9] CAD/CAM aids in computerized tracking of work flow which is helpful in positioning inspection throughout the process. This helps to minimize the number of parts which require rework or which must be scrapped. FMS changes the outlook of inspection from a post-position to an in-process position. Hence, feedback is available in real time which improves quality and helps product to be within the tolerance level. [10] Flexible manufacturing systems (FMS) are virtually always used in conjunction with just-in-time (JIT) order systems. This combination increases the throughput and reduces throughput time and the length of time required to turn materials into products. Flexible Manufacturing Systems have a made a huge impact on activity-based costing. [11] Using these systems helps firms to switch to process costing instead of job costing. This switching is made possible because of the reduced setup delays. With set-up time only a small fraction of previous levels, companies are able to move between products and jobs with about the same speed as if they were working in continuous, process type environment. To look at another aspect of strategic benefits, enterprise integration can be facilitated by FMS. An agile manufacturer is one who is the fastest to the market, operates with the lowest total cost and has the greatest ability to “delight” its customers. FMS is simply one way that manufacturers are able to achieve this agility. [12] This has also been reported in many studies that FMS makes the transition to agility faster and easier. Over time, FMS use creates a positive attitude towards quality. The quality management practices in organizations using FMS differs from those not using it. The adoption of flexible manufacturing confers advantages that are primarily based upon economies of scope. As a result of aiming simultaneously at flexibility, quality and efficiency, the future manufacturing industry will strive towards: producing to order, virtually no stock, very high quality levels, and high productivity. [13] Disadvantages of Flexible Manufacturing System [14] Now that we have looked at the multiple advantages flexible manufacturing systems offer, the next obvious question is, if they are so good and so useful then why are they not ubiquitous by now? It is essential to look at the other side, especially the impact these systems have on costing, product mixes decided by the company and the inevitable trade- off between production rates and flexibility. Following are the major disadvantages that have been observed Complexity These sophisticated manufacturing systems are extremely complex and involve a lot of substantial pre planning activity before the jobs are actually processed. A lot of detail has to go into the processing. Often users face technological problems of exact component positioning. Moreover, precise timing is necessary to process a component. Cost of equipment [15] Equipment for a flexible manufacturing system will usually initially be more expensive than traditional equipment and the prices normally run into millions of dollars. This cost is popularly known as the Risk of Installation. Maintenance costs are usually higher than traditional manufacturing systems because FMS employs intensive use of preventive maintenance, which by itself is very expensive to implement. Energy costs are likely to be higher despite more efficient use of energy. Increased machine utilization can result in faster deterioration of equipment, providing a shorter than average economic life. Also, personnel training costs may prove to be relatively high. Moreover there is the additional problem of selecting system size, hardware and software tailor made for the FMS. Cost of automation in the form of computer integration is the most significant cost in a flexible manufacturing system. The components require extensive computer control. Also, the costs of operation are high since a machine of this complexity requires equally skilled employees to work or run it. Adaptation Issues There is limited ability to adapt to changes in product or product mix. For example, machines are of limited capacity and the tooling necessary for products, even of the same family, is not always feasible in a given FMS. Moreover, one should keep in mind that these systems do not reduce variability, just enable more effective handling of the variability. Equipment Utilization Equipment utilization for flexible manufacturing systems is sometimes not as high as expected. Example, in USA, the average is ten types of parts per machine. Other latent problems may arise due to lack of technical literacy, management incompetence, and poor implementation of the FMS process. It is very important to differentiate between scenarios where FMS would be beneficial (ex, where fast adaptation is the key) and those where it wouldn’t (ex where a firm’s competency is based on minimizing cost). Product/Job Costing [16] Arguably the biggest disadvantage of flexible manufacturing systems is the difficulty faced by the company in allocating overhead costs to jobs. Usually, several products share the same resources with different consumption characteristics. Ideally, the overhead allocation should be directly proportional to the resource consumption. But this becomes complicated in the case of flexible manufacturing systems since it is very difficult to estimate which product used which machine for which purpose and for how long. Often this leads to under costing of some products and consequently over costing of others. In systems that use FMS, usually the fixed costs are quite high due to the following reasons: The machines are costly, material handling is more expensive and the computer controls are state of the art, thereby leading to a higher depreciation than seen in traditional manufacturing systems. A lot of items which are otherwise usually treated as direct costs are counted under indirect costs in case of flexible manufacturing systems. For example, labour is normally attributed to the job directly done, but in FMS, the same workers work on machines that usually run two jobs simultaneously. Hence even labour costs are to be treated as overhead or indirect costs. In order to ensure smooth running of the flexible manufacturing systems, a lot of support activities carried out by engineers and technicians. Keeping the above points in mind, we can infer that in order to cater to these scenarios, Activity Based Costing techniques are used with FMS to reduce distortion of product costs. FMS Adoption in Automobile Industry The Flexible manufacturing system has been adopted extensively in the manufacturing industry in this day and age. It addresses the issue of automation and process technology which is a key area for concern of manufacturing management along with inventory production planning and scheduling and quality. One industry which has extensively adopted this system is the Automobile Industry. Almost all global giants now follow the Flexible Manufacturing system and many have developed their own manufacturing system keeping FMS as an integral part of it. The Big Three of the American Automotive Industry namely General Motors, Ford Motors and Chrysler Motors enjoyed a monopolistic environment for a very long time. This in some way inhibited their innovation capabilities as there was no competition in the market which could drive them to innovate. These companies, therefore, maintained production facilities that were suitable for mass production of any single model, which ensured economies of scale and plant profitability. But gradually as Asian car makers gained prominence in the automotive market, the Big Three of the United States faced huge challenges across all product lines. The main Asian competitors that came into picture were Toyota, Honda, Nissan and Mitsubishi from Japan and Hyundai from South Korea. With these Asian countries exporting vehicles to the United States of America, competition heightened and the profitability of the Big Three decreased. To improve its profitability and maintain its market share Chrysler Corporation, General Motors and Ford Motor Company employed Flexible Manufacturing System in their production lines following what had been started in Japan. The essential driving force for adoption of FMS in Automobile industry is The emphasis on increasing product variety and individualization has created a strong need to develop a flexible manufacturing system to respond to small batches of customer demand. Cost savings were required to be more competitive. Newer varieties needed to be introduced in lesser time and at lesser cost. Given below are examples of some companies and their motive for adopting FMS as well as the benefits that they have achieved through it Japanese Companies and Latest FMS Toyota Toyota has been at the forefront of adopting flexible manufacturing system which has been in place since 1985. In 2002, Toyota unveiled its Global Body Line (GBL), a radical, company-wide overhaul of its already much-envied FMS. [

HS 103 NEIT Interview Questions with Nurse Jackie Nursing Question

HS 103 NEIT Interview Questions with Nurse Jackie Nursing Question.

I’m working on a nursing writing question and need support to help me learn.

I need a 5-7 page paper on what medical specialty interest me the most. My specialty is nursing and I plan to go into NICU (neonatal). The paper also require research on schools that offer nursing programs and they can’t be located in Rhode Island. Since the schools are all out of state I would live there. I will complete the cover sheet but I need a bibliography with in text citations. It also requires an interview with nurse and I will provide that in a file.
HS 103 NEIT Interview Questions with Nurse Jackie Nursing Question

Which sentence is written in passive voice?

write my term paper Which sentence is written in passive voice?.

As I said these words I busied myself among the pile of bones of which I have before spoken.
It seemed to have been constructed for no especial use within itself…
“But I must first render you all the little attentions in my power.”

Which sentence is written in passive voice?

Study On Cursive Handwriting English Language Essay

On July 7, 2011, MSNBCs, Peter Jennings reported, Cursive handwriting is being described as a dying art form, due to the introduction of keyboarding and simple printing in Americas schools. Jennings also reported that, Illinois schools would no longer teach cursive handwriting and that it is now optional to teach cursive in forty-three other states (Jennings). In my research for answers, I came across many articles, studies, videos and publications, as to why cursive handwriting is important for America’s future. I found that though many educators, scholars and media personalities, agreed that cursive handwriting should stay as part of the curriculum, most just accept and also agreed that technology will be the way of teaching and learning in the future of America’s schools. I also found that America has shortage of certain professions that without the developmental benefits that cursive handwriting has to offer, today’s American school age children, will not have the developmental skills to obtain those jobs when they grow up (Wilm). When I came across a summary that said, that the importance of cursive handwriting in America’s schools has been overshadowed by the availability of personal computers, and smart phones (Gentry and Graham 4); I then asked myself, “What kind of future do America’s school age children have with technology replacing cursive handwriting?” In an article by Marion Wilm, an occupational therapist in Charlotte, North Carolina, she states that handwriting is a skill that uses the smallest muscles in the hand that develop precision skills. These muscles are the ones that help surgeons, scientist, and computer technicians achieve their jobs (Wilm). Research shows that America already has a shortage of surgeons with these skills. Dr. Kevin Pho, MD., says, “The number of general surgeons needed to adequately serve the population is estimated to be at least 7 per 100,000 people. Currently there are about 18,000 active general surgeons in the US or 5.8 per 100,000 people. The ratio of general surgeons per 100,000 population has dropped by 26% in the last 25 years (Pho).” Princeton-based historian of technology and culture Edward Tenner, who has researched the evolution of handwriting from the Middle Ages; argues that handwriting is just as valuable a skill for the 21st century as in the past. Tenner claims that preserving cursive handwriting is far from a sentimental activity. He argues that handwriting exercises profound and significant connections between the hand and the brain and is a skill too important to abandon: “States and school districts thinking of eliminating handwriting teaching – cursive or italic – should at least make it possible for a minority of motivated teachers and students to learn the skill and track the results. I’ll bet that [handwriting] can be a key to a healthier approach to education and life,” says Tenner, who recently spoke on the subject of “Handwriting after Gutenberg” at the Plainsboro Public Library, where he found the majority of his audience in support of keeping handwriting in the school curriculum. To his surprise, “the children and teenagers seemed to be as overwhelmingly pro-handwriting as their elders.” In the Wall Street Journal, Gwendolyn Bounds cataloged the benefits of teaching handwriting and described researchers who have used magnetic resonance imaging to show that handwriting helps children learn letters and shapes and can even improve idea composition and expression. Children learning handwriting is good exercise benefiting their motor skills and also for the development of the brain, which enhances their ability to compose ideas, achieve goals throughout life (Bounds). Frank Wilson, a neurologist and author, wrote that, “Although the repetitive drills that accompany handwriting lessons seem outdated, such physical instruction will help students to succeed. These activities stimulate brain activity, lead to increased language fluency, and aid in the development of important knowledge” (Montemayor). The important aspect of the movement of the hands is the capacities that develop language and thinking and also, “developing deep feelings of confidence and interest in the world-all-together,” a vital necessity for the growth of the caring and capable individual,” (Wilson). “There’s good evidence that, like other forms of manual exercise, learning some form of rapid writing – cursive or italic or possibly both – is good for the developing brain,” says Tenner. Recent research suggests that writing by hand helps one retain information, something to do with the fact that a letter drawn by hand requires several sequential finger movements (involving multiple regions of the brain) as opposed to a single keyboard tap. How often have you heard someone say (or said yourself): “If I’m going to remember that I’ll have to write it down.” Nevertheless, some respected academics such as linguist Dennis Baron argue against handwriting. In his book, “A Better Pencil: Readers, Writers, and the Digital Revolution,” he compares the reaction against computers in the classroom to the anxiety and outrage that often follows the introduction of new technology. The printing press, he says, was described as disrupting the “almost spiritual connection” between writer and page; the typewriter was considered “impersonal and noisy” as compared to the art of handwriting. As far as Rider’s Suzanne Carbonaro is concerned, successful teaching depends on matching techniques with students and the culture of the school. She will speak on the value of bringing technology into 21st century schools: “I love to infuse tools that make my life more efficient and help me stay organized,” says Carbonaro. “As an educator, I support teachers when they implement technology into their lessons.” As an example, Carbonaro cites teacher Jeanne Muzi at Benjamin Franklin Elementary School in Lawrenceville, who introduced her first graders to wikis, mobile technology, and video to enhance their critical thinking and literacy skills. “Teachers like Jeanne spot technology that supports her students’ learning and seize the opportunity to infuse it in her teaching.” While technology often gets blamed for the demise of handwriting, recent developments may stem that tide. New software for touch-screen devices, such as the iPad, allow for handwriting. Smartphone apps such as “abc PocketPhonics” encourage children to draw letters with a finger or stylus. For those who have not adapted well to the keypads on hand-held devices, applications such as “WritePad” allow handwriting with a finger or stylus, which is then converted to text for E-mail, documents, or Twitter updates. The Waldorf School’s Caroline Phinney will bring her years as an educator to bear on the importance of movement and play for young children and the value of keeping technology and formal instruction for later. Asked at what age she believes it appropriate to introduce technology to children, Phinney says “when they can understand it.” As to the argument that children live in a world of technology and social media and that the sooner they are introduced to it, the better, Phinney is unmoved. She points out that any technology available today will have changed exponentially by the time today’s youngsters have grown to adulthood and that the important thing is that they should acquire their own resources of creativity and imagination through hands-on experiences and play. “Punching buttons robs them of the opportunity of developing their own resources,” she says. “I watch young children a great deal, and I look at their hands, are they used for digging, for exploring, I believe it isn’t so healthy for them to be close to machinery; they need time to read, to be in nature, to create their own artwork.” Now retired from teaching, Phinney remembers the fun of forming letters in the sandbox with very young children. “Writing to read is almost a motto at Waldorf,” she says. As for her participation in the TEDx event: “We all have something to learn from each other. In my case, I may be prompted to spring into movement to make my point!” In schools like the Princeton Waldorf School, handwriting goes hand-in-hand with reading. In fact, says Phinney, children’s initial encounter with reading will be through their own writing. As an example, Phinney describes the process of learning to write the letter “g” by way of a story, “The Golden Goose” (in which everyone who comes in contact with the goose sticks to it). The goose’s curved neck is echoed in the letter “g” and from that the children eventually come to the capital letter “G.” Many scientists and researchers still maintain handwritten notebooks, with entries carefully dated, in part because they establish a reliable and hard-to-fake record of their intellectual progress – useful in the event of a patent or copyright suit.

Comparing St.Agnes vs Mayo Clinic into a more detailed financial analysis. I created a PowerPoint which talks about the

Comparing St.Agnes vs Mayo Clinic into a more detailed financial analysis. I created a PowerPoint which talks about the basics but in the paper, I’m going to be more detailed about it. Do it in text citation and reference it in apa format. You can find the financial staments either online or in the powerpoint. Provide an overview of the healthcare system; summarize its mission, vision, and values. Include an overview of the types of services and in what markets they operate b. Compute and evaluate the standard financial ratios – see Ratios tab. Add at least one or more per category of your choosing that is significant to your healthcare system c. Perform a horizontal analysis of financial statements – percentage change d. Perform a vertical analysis of financial statements e. Prepare and use common-size financial statements, include benchmarking against a key competitor (Mayo Clinic) and Comparitive and Trend Analysis f. Complete a SWOT analysis for the healthcare system g. Provide a summary of your interpretation of the the CEO financial ratios and recommendations you would make to Chapter 5: Cost Behavior, Organizational Costing, and Profit Copyright 2021 Foundation of the American College of Healthcare Executives. Not for sale.