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Description I need help for the solution of attached problems. Please show all steps of solution. Thanks

Description I need the Simulation in a great way and I need to get 100% , please because I need to pass the class

Description please write a lab report about this topic, all information you need is in the file also put the data in the report.

Description At least 10 pages Double space. Introduction Motivation Questions you may initially wish to explore. Select a subject of interest to you involving physical science related to humans or animal. It can also be a medical condition or an injury which either results from the activity or affects the performance of the activity. This topic should be relevant to an area of further study/career preparation. a. Questions you may initially wish to explore. You may explore any idea/question that may interest you. The purpose here is to apply your understanding of concepts discussed in class to situations in healthcare or other phenomena of interest, and to integrate information from multiple sources in formulating your own understanding. Proceed with Inquiry - Frame question(s) and define what you want to explore and find out. Those questions may morph as you find unexpected information. Coming across physics that you do not understand is OK. It is a great opportunity to articulate what is confusing or unclear to you. Recognize and apply a wide range of physics principles in real–life phenomena, at different scales. (Not what happens but why it happens) You can do this by explaining physical mechanisms of some aspect of project phenomena in terms of underlying physics involving appropriate scales (macroscopic, tissue, cellular, molecular). At least 5 of the following topics should be included: 1. Fluids 2. Elasticity, Stress & Strain 3. Oscillations 4. Waves 5. Electric Forces, Fields, Potentials 6. Electric Circuits 7. Magnetism 8. Electromagnetic Induction 9. Electromagnetic Waves 10. Optics 11. Quantum 12. Nuclear Simulations, animations, and videos that explain a physical mechanism very well can be used with only a brief summary by you. However you may be asked to explain it in the oral interview. Use of pictures, videos are encouraged Model functional relationship between measurable quantities of some essential aspect of real-life phenomenon, noting limitations of the model, for a wide variety of physics concepts. Use simple mathematical relationships, either the mathematical models we covered in class, or others you may find, from at least 5 topics of your choice Explain how the model describes the functional relationship between the quantities of your phenomenon. Explain how the physics concept is exemplified by the mathematical model. At least 3 of the models should expand to include calculations, with some thought as to the reasonableness of your answer. Use of correct units throughout is required. Simplifying assumptions should be stated. Note if model does not fit well. Interpret visual displays of quantitative information (e.g. - graphs, force diagrams, field or potential diagrams) Include your interpretation of at least 3 visual displays of quantitative information in terms of how quantities relate to each other, or how they change with time or location. Use a variety of resources responsibly All information sources should be cited or URLs given, preferably on page where information occurs. At least 3 resources used should be peer-reviewed articles You do not need to understand all that is in a peer-reviewed source, however, if some of the physics relevant to your project phenomenon is unclear, make note of that. Any phrases taken directly from a source should be bracketed in quotation marks. Be aware of the type of source. Be critical of sources for validity of information Communicate effectively to explain your reasoning using physics terminology appropriately. Articulate your understanding in writing in. Articulate your understanding in your oral interview Articulate how other students’ projects may be improved (follow at least two other students) You are free to view and comment on any project, but you will only be graded on your comments to the two projects to which you have been assigned (hopefully by your choice) Select a subject of interest to you involving physical science related to humans or animal. It can also be a medical condition or an injury which either results from the activity or affects the performance of the activity. This topic should be relevant to an area of further study/career preparation. You may explore any idea/question that may interest you. The purpose here is to apply your understanding of concepts discussed in class to situations in healthcare or other phenomena of interest, and to integrate information from multiple sources in formulating your own understanding. Competencies your project should demonstrate you can do: Choose one overarching physical human/animal/health/medical area that interests you and which you would like to know more about. You will be exploring and explaining how many of the different aspects of the physics seen this semester can broaden and deepen your understanding of your chosen area. For each of 5 of the major physics topics (See list below) you will be finding a connection to your area of interest. Required Explain why this area interests you Pose question(s) that you may have about your chosen area. What physical mechanisms would you like to understand better? Online submission For each physics topic Frame Question If possible, frame question(s) in terms of underlying physical mechanism using physics terminology. (You do not have to find answer to your question(s) to get full credit) Alternatively, frame question asking how a particular topic concept (using physics terminology) relates to your area of interest. Apply topic concepts to elucidate a physical mechanism of a phenomenon in this area of interest, using proper physics terminology Include at least two of the following: Pictures, diagrams, or videos that elucidate phenomenon Animations or simulations that clarify physical mechanism Data with units Visual display of data (graphs, charts, spatial maps) Use at least one peer-reviewed journal article for 3 of the physics topics related to your interest area. Show how a physics principle involved with a physical mechanism comes up in the article. What is unclear or confusing to you? (related to the physics, not the biological or clinical terminology) Reference ALL sources - include website URLs

Description Answer each of the following questions based on your reading “Instructors’ reasons for choosing problem features in a calculus-based introductory physics course” by Yerushalmi.(attached) 1. The end of the introduction suggests that readers “reflect on how these problems are similar or different to the problems they use, and then try to articulate their reasons for favoring particular problem features.” Write your reflection based on that prompt now. How are these problems similar or different to what you use? What are your reasons for choosing particular problem features? 2. The paper reveals that instructors seem to have different criteria for how they choose problems for any situation and how they choose problems for exams. Do you have different criteria for choosing problems based on whether the problems are part of a homework assignment, in-class assignment, or test? If so, what is your reasoning? 3. What are the strengths and weaknesses of this study? What do you think a good follow-up study would be?

Description need lab report (lab outline)1 *cover sheet -{title -phys 205L005-Name -prof name }2* introduction {Theory} 4-5 sentence 3*Data {charts /tables 4* Analysis {Question }5* conclusion -summary Note :you will find data on attachment and complete date please .Also,you can find the lab information on manuel from page( 197-205)

Description 1. In question 1, we consider processes similar to Process A from the tutorial, with a block with heat capacity 400 J/K and initial temperature 280 K and a second block with heat capacity 200 J/K and initial temperature 340 K. A. In process B, the 280 K block and 340 K block change in temperature, but in the opposite direction as in process A. In other works, the temperature of the 280 K block decreases to 260 K and the 340 K block increases to 380 K. The blocks are still thermally isolated from all other objects. 1. Is process B allowed by the first law of thermodynamics? Explain your reasoning. 2. What is the total change in entropy of the two-block system during process B? B. In process C, both blocks begin at 300 K but their temperatures diverge so that the block with heat capacity 400 J/K ends up at a temperature of 280 K and the other ends up at 340 K. (Note that this process is the reverse of process A). 1. Is process C allowed by the first law of thermodynamics? Explain your reasoning. 2. Using your result from part A.5, find the change in entropy for each block and for the two block system during process C. C. The following questions refer to processes A (from the tutorial), B, and C. 1. For those processes that you would expect to observe, was the total change in entropy of all systems involved greater than, less than, or equal to zero? 2. For those processes that you would not expect to observe, was the total change in entropy of all systems involved greater than, less than, or equal to zero? 2. Consider a macroscopic system of two blocks that are in thermal contact. The two-block system is isolated from the rest of the universe. Initially, a hotter block is at a temperature TH and a colder block is at a temperature TC. In the final state of the system, the two blocks are at the same intermediate temperature TI. A. Compare the following quantities for the initial state and final state: Entropy for the block that starts at TH Sf > Si Sf < Si Si = Sf not enough information Entropy for the block that starts at TL Sf > Si Sf < Si Si = Sf not enough information Combined entropy for the two block system Sf > Si Sf < Si Si = Sf not enough information B. Consider the following statement: “When the blocks approach equilibrium, they move to a final state that is more natural, so their level of order increases.” Do you agree with this statement? Does this statement agree with the second law of thermodynamics? 3. An ice cube with a mass of 30.0 g is dropped into a beaker of water. The initial temperature of the ice cube is 0° C and the initial temperature of the water in the beaker is 20° C. The heat capacity of the water in the beaker is 2000 J/K. The latent heat of fusion for water is 333 J/g. Assume that the system consisting of the beaker and the cube does not thermally interact with its surroundings. A. Determine the equilibrium temperature of the system. B. Find the changes in entropy for the following processes and carefully specify the system (or subsystem) for which you found ?S. a. the melting of the ice cube: (Hint: Does the temperature of the ice change during this process?) b. the cooling of the water as the ice cube is melting: c. the heating of the melted ice to its final temperature: d. the cooling of the warm water to its final temperature: C. Find the total change in entropy during the process: D. Would you expect the reverse of this process (i.e., 30 g of ice forms spontaneously from a beaker of water at the final temperature) to occur? Is the reverse of this process forbidden by the first or second law of thermodynamics? HW file is also being attached below along with the tutorial paper too.

Description Solve the problems about Linear algebra and vectors

Description Has to be done well. This test is the introduction to physics. It is easy

Description Directions: Answer each of the following questions based on your reading "Framing the structural role of mathematics in physics lectures: A case study of electromagnetism" by Karam. (attached) 1. This paper differs from the ones we have read previously in that it focuses more on instruction than on student understanding. What do you think the value of this research perspective is, if any? 2. Which of the categories (summarized in Table II) do you use the most in your instruction? Why? 3. This case study is of a university lecture environment. A high school environment is often much different. How are you preparing your students for this transition? (Note: There is a movement to reduce traditional lecture in the university setting, but it has not reached all physics courses yet.)