BME100 f2013:W1200 Group11 L6: Difference between revisions

From OpenWetWare
Jump to navigationJump to search
Line 37: Line 37:


''[Instructions: A short paragraph discussing just one possible way to use TinkerCAD for something practical...like redesigning the OpenPCR machine, fluorimeter, camera holder, printing out some of the smaller plastic items on demand, etc. There are lots of possibilities...pick just ONE.]''<br>
''[Instructions: A short paragraph discussing just one possible way to use TinkerCAD for something practical...like redesigning the OpenPCR machine, fluorimeter, camera holder, printing out some of the smaller plastic items on demand, etc. There are lots of possibilities...pick just ONE.]''<br>
TinkerCAD can be used for numerous practical reason in Biomedical Engineering ranging from redesigning PCR Machine by putting a better display all in one program or making new fluorimeter that has a sliding camera holder. The camera holder will allow the phone to be at a constant distance away from the slide without having to move the phone constantly. To illustrate this on TinkerCAD, different types of shapes can be added for the camera holder allowing it to extend to and away from the slides as well as vertically to provide the ideal picture of the machine. <br>
TinkerCAD can be used for numerous practical reason in Biomedical Engineering ranging from redesigning PCR Machine by putting a better display and a all in one program or making new fluorimeter that has a sliding camera holder. The camera holder will allow the phone to be at a constant distance away from the slide without having to move the phone constantly. To illustrate this on TinkerCAD, different types of shapes can be added for the camera holder allowing it to extend to and away from the slides as well as vertically to provide the ideal picture of the machine. <br>
<!-- Note: Be sure to delete the text in brackets: ''[ ]'' -->
<!-- Note: Be sure to delete the text in brackets: ''[ ]'' -->



Revision as of 18:41, 24 November 2013

BME 100 Fall 2013 Home
People
Lab Write-Up 1 | Lab Write-Up 2 | Lab Write-Up 3
Lab Write-Up 4 | Lab Write-Up 5 | Lab Write-Up 6
Course Logistics For Instructors
Photos
Wiki Editing Help

OUR TEAM

Name: Angelina Ledesma
Name: Shayan Naeini
Name: Nitish Peela
Name: Meera Doshi
Name: Nathan Dacasin


LAB 6 WRITE-UP

Computer-Aided Design

TinkerCAD

[Instructions: A short summary (up to five sentences) of the TinkerCAD tool and how you used it in lab on November 20th]
During this lab, TinkerCAD was able to assist us in making changes to the micropipette tubes. TinkerCAD is a 3D design website that helps in changing products design by using various types of workplaces and innovative designs. The original design of the eight Eppendorf tubes was very confusing and difficult to determine the solution that each of the tubes contained. In order to fix this, our group decided to label each of the tubes with a number in order to avoid cross contamination. The main tools used was the change in workplace, which changed the sides of the tubes in order to place a number on the surface. We were also able to change color of the number tubes to make them all consistent in a set of eight.


Implications of Using TinkerCAD for Design

[Instructions: A short paragraph discussing just one possible way to use TinkerCAD for something practical...like redesigning the OpenPCR machine, fluorimeter, camera holder, printing out some of the smaller plastic items on demand, etc. There are lots of possibilities...pick just ONE.]
TinkerCAD can be used for numerous practical reason in Biomedical Engineering ranging from redesigning PCR Machine by putting a better display and a all in one program or making new fluorimeter that has a sliding camera holder. The camera holder will allow the phone to be at a constant distance away from the slide without having to move the phone constantly. To illustrate this on TinkerCAD, different types of shapes can be added for the camera holder allowing it to extend to and away from the slides as well as vertically to provide the ideal picture of the machine.

Feature 1: Cancer SNP-Specific Primers

[Instructions: This information will come from the Week 9 exercises you did in lab. Your notes should be in a pdf file that is saved on Blackboard under your group.]

Background on the cancer-associated mutation

[Instructions: Use the answers from questions 3, 4, 5, and 7 to compose, in your own words, a paragraph about rs17879961]


Primer design

  • Forward Primer: [Instructions: write the sequence of the forward primer]
  • Cancer-specific Reverse Primer: [Instructions: write the sequence of the forward primer]

How the primers work: [Instructions: explain what makes the primers cancer-sequence specific. In other words, explain why the primers will amplify DNA that contains the cancer-associated SNP rs17879961, and will not exponentially amplify DNA that has the non-cancer allele.]



Feature 2: Consumables Kit

Packaging of materials can be carried out in a way that effectively prevents a major problem encountered throughout the process: bleaching of the SYBR green dye. The tubes used to contain this dye should be covered with a light-blocking foil that can be removed manually when necessary. This will minimize contact between the dye and light, ensuring that the SYBR green dye remains potent.

Additionally, packaging can be made more compact by stacking pipette tip trays atop one another, rather than having a collection of many trays that take up unnecessary space. These pipette tip trays should be placed in a shatter-resistant, cohesive container that will keep the trays intact even when dropped.

[Instructions: IF your consumables packaging plan addresses any major weakness discussed by your group or mentioned by others (see the Virtual Comment Board Powerpoint files on Blackboard, Lab Week 12) explain how in an additional paragraph.]


Feature 3: PCR Machine Hardware

An inconvenience encountered during the use of the given PCR machine hardware was having to hook up the PCR machine to the computer in order to display results. This frequently caused problems due to additional materials being needed and a lack of quality in the cable connecting the PCR machine and the computer. Insead, it would be much more convenient to simply be able to view the results on the PCR machine itself. In order to accomplish this, the PCR machine hardware would have to be redesigned in order to include a large screen and display system programmed to take in instructions and show completion of the cycles.

Also, the LED display could be improved. Overheating in the PCR machine system caused the LED display to burn out and stop working. Designing and implementing a better cooling system with fans within the machine could help users avoid this problem.

[Instructions: IF your group has decided to redesign the PCR machine to address any major weakness discussed by your group or mentioned by others (see the Virtual Comment Board Powerpoint files on Blackboard, Lab Week 12) explain how in an additional paragraph.]


Feature 4: Fluorimeter Hardware

[Instructions: Summarize how you will include the fluorimeter in your system. You may add a schematic image. An image is OPTIONAL and will not get bonus points, but it will make your report look really REALLY awesome and easy to score.]

[Instructions: IF your group has decided to redesign the fluorimeter to address any major weakness discussed by your group or mentioned by others (see the Virtual Comment Board Powerpoint files on Blackboard, Lab Week 12) explain how in an additional paragraph.]


Bonus Opportunity: What Bayesian Stats Imply About The BME100 Diagnostic Approach

[Instructions: This section is OPTIONAL, and will get bonus points if answered thoroughly and correctly. Here is a chance to flex some intellectual muscle. In your own words, discuss what the results for calculations 3 and 4 imply about the reliability of CHEK2 PCR for predicting cancer. Please do NOT type the actual numerical values here. Just refer to them as being "less than one" or "very small." The instructors will ask you to submit your actual calculations via e-mail. We are doing so for the sake of academic integrity and to curb any temptation to cheat.]