Question

I have a question about retaining the structure of a material. I'm working on a project at the moment and I was wondering if there are ways to laminate cylindrical objects through a desktop laminator. The key idea is for it to remain cylindrical after lamination. I've tried inserting some materials inside and around the cylinder object to help it maintain its shape after lamination. This has had some success. I'm wondering if there are any other ways to achieve this or any methods that produce better results. Please provide input with a straw as an example and provide results (i.e., proof via photos, etc.). I know there are shape memory polymers out there. What is a simple way to fabricate it or acquire it? 

          I have a question about retaining the structure of a material. I'm working on a project at the moment and I was wondering if there are ways to laminate cylindrical objects through a desktop laminator. The key idea is for it to remain cylindrical after lamination. I've tried inserting some materials inside and around the cylinder object to help it maintain its shape after lamination. This has had some success. I'm wondering if there are any other ways to achieve this or any methods that produce better results. Please provide input with a straw as an example and provide results (i.e., proof via photos, etc.). I know there are shape memory polymers out there. What is a simple way to fabricate it or acquire it?
Show more…

Added by Enrique J.

University Physics with Modern Physics
University Physics with Modern Physics
Hugh D. Young 14th Edition
AceChat toggle button
Close icon
Ace pointing down

Please give Ace some feedback

Your feedback will help us improve your experience

Thumb up icon Thumb down icon
Thanks for your feedback!
Profile picture
I have a question about retaining the structure of a material. I'm working on a project at the moment and I was wondering if there are ways to laminate cylindrical objects through a desktop laminator. The key idea is for it to remain cylindrical after lamination. I've tried inserting some materials inside and around the cylinder object to help it maintain its shape after lamination. This has had some success. I'm wondering if there are any other ways to achieve this or any methods that produce better results. Please provide input with a straw as an example and provide results (i.e., proof via photos, etc.). I know there are shape memory polymers out there. What is a simple way to fabricate it or acquire it?
Close icon
Play audio
Feedback
Powered by NumerAI
Danielle Fairburn Kathleen Carty
Jennifer Stoner verified

Adi S and 84 other subject Physics 101 Mechanics educators are ready to help you.

Ask a new question
*

Labs

-

Want to see this concept in action?

NEW

Explore this concept interactively to see how it behaves as you change inputs.

View Labs
*

Key Concepts

-
Key Concept
Premium Feature
Explore the core concept behind this problem.
Play button
Key Concept
Premium Feature
Explore the core concept behind this problem.
Your browser does not support the video tag.
*

Recommended Videos

-
a-polyethylene-cylinder-is-attached-to-perfectly-rigid-end-plates-on-its-top-and-bottom-ends-both-of-which-are-free-to-move-a-solid-steel-rod-is-attached-to-the-bottom-end-plate-but-extends-10967

A polyethylene cylinder is attached to perfectly rigid end plates on its top and bottom ends, both of which are free to move. A solid steel rod is attached to the bottom end plate but extends through a hole in the top plate and is securely fastened to a rigid nut. At the initial conditions depicted in the sketch below, there is a 0.25 mm gap between the underside of the nut and the top of the top end plate. If the temperature of the assembly is increased by 80°C, determine the following (assume that the dimensions of the end plates do not change with temperature): a) The resulting axial force in the steel rod; and b) The final length of the polyethylene cylinder.

Adi S.
a-polyethylene-cylinder-is-attached-to-perfectly-rigid-end-plates-on-its-top-and-bottom-ends-both-of-which-are-free-to-move-a-solid-steel-rod-is-attached-to-the-bottom-end-plate-but-extends-10967

A polyethylene cylinder is attached to perfectly rigid end plates on its top and bottom ends, both of which are free to move. A solid steel rod is attached to the bottom end plate but extends through a hole in the top plate and is securely fastened to a rigid nut. At the initial conditions depicted in the sketch below, there is a 0.25 mm gap between the underside of the nut and the top of the top end plate. If the temperature of the assembly is increased by 80°C, determine the following (assume that the dimensions of the end plates do not change with temperature): a) The resulting axial force in the steel rod; and b) The final length of the polyethylene cylinder.

Adi S.
paper-has-a-dielectric-constant-k37-and-a-dielectric-strength-of-15-times-106-mathrmv-mathrmm-suppos

Paper has a dielectric constant $K=3.7$ and a dielectric strength of $15 \times 10^{6} \mathrm{V} / \mathrm{m}$ . Suppose that a typical sheet of paper has a thickness of 0.030 $\mathrm{mm}$ . You make a "homemade" capacitor by placing a sheet of $21 \times 14 \mathrm{cm}$ paper between two aluminum foil sheets (Fig. 41). The thickness of the aluminum foil is 0.040 $\mathrm{mm}$ . (a) What is the capacitance $C_{0}$ of your device? (b) About how much charge could you store on your capacitor before it would break down? (c) Show in a sketch how you could overlay sheets of paper and aluminum for a parallel combination. If you made 100 such capacitors, and connected the edges of the sheets in parallel so that you have a single large capacitor of capacitance $100 C_{0},$ how thick would your new large capacitor be? (d) What is the maximum voltage you can apply to this 100$C_{0}$ capacitor without break-down?

Physics for Scientists and Engineers with Modern Physics

*

Recommended Textbooks

-
University Physics with Modern Physics

University Physics with Modern Physics

Hugh D. Young 14th Edition
achievement 1,680 solutions
Physics: Principles with Applications

Physics: Principles with Applications

Douglas C. Giancoli 7th Edition
achievement 1,314 solutions
Fundamentals of Physics

Fundamentals of Physics

David Halliday, Robert Resnick , Jearl Walker 10th Edition
achievement 1,639 solutions
*

Transcript

-
00:01 Let the force in the polyethylene cylinder be f pc and the force in the force in solid steel rod solid steel rod be f sr and that in the solid steel rod be f sr so we have 2 multiplied with f pc minus f sr equals 0 so this implies delta pc equals 0 .025 minus delta sr now area of the area of cylinder a pc equals 0 .25 by 0 .25 by multiplied with 175 minus 170 whole square and this is equal to 19 .63 19 .63 millimeter square area of rod area of rod a…
Need help? Use Ace
Ace is your personal tutor. It breaks down any question with clear steps so you can learn.
Start Using Ace
Ace is your personal tutor for learning
Step-by-step explanations
Instant summaries
Summarize YouTube videos
Understand textbook images or PDFs
Study tools like quizzes and flashcards
Listen to your notes as a podcast
Continue solving this problem
Create a free account to:
  • View full step-by-step solution
  • Ask follow-up questions with Ace AI
  • Save progress and study later
Continue Free
Numerade

Get step-by-step video solution
from top educators

Continue with Clever
or



By creating an account, you agree to the Terms of Service and Privacy Policy
Already have an account? Log In

A free answer
just for you

Watch the video solution with this free unlock.

Numerade

Log in to watch this video
...and 100,000,000 more!


EMAIL

PASSWORD

OR
Continue with Clever