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Claude Comes to CAD: Anthropic’s AI Can Now Help Build 3D Models in Autodesk Fusion

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As part of Anthropic’s Claude for Creative Work launch, Autodesk Fusion is now available through Claude, turning natural language prompts into real design actions, bridging concept and manufacturable output.

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TinkerXR: In-Situ, Reality-Aware CAD and 3D Printing Interface for Novices

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In-Situ, Reality-Aware CAD and 3D Printing Interface for Novices

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A Free, Classroom-Tested 3D Printing Guide for Articulated Toys

Developed by an experienced teacher and tested in real classrooms for years, this hands-on guide empowers students to design, prototype, and print their own articulated toys-no prior 3D printing experience needed. We're thrilled to bring this proven project to educators everywhere, completely free.

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Interactive Toy Design Guide Confirmation

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Interactive Toy Design Guide Confirmation

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WATAP's 3D Printed Assistive Technology Program is available to all residents of Washington State. This program is intended only as a last-resort option. Because resources are limited, each household may receive no more than 5 items. This also means we do not provide any 3D printed assistive technology that has an affordable equivalent alternative option available on the market. All items listed in the catalog below are preapproved for printing, and upon request we will provide you with a free copy of that device. Shipping is available within Washington State. Any requests for items not on this list will be evaluated on a case-by-case basis and we will let you know if it is possible for us to print.

To request an item, please click this link and complete the form: WATAP 3D Printed Device Request Form

Or you may email: watap@uw.edu to request more information.

By partcipating in this program, you agree to our Terms and Conditions.

#1 Ball Pen Holder

Description: "The pen ball makes it easier to grip a pen, pencil, or other writing utensil for someone with joint pain or limited hand dexterity." (Please note which size when requesting)

Source: MakersMakingChange.com

#5 Fidget Rings (by WATAP)

Description: "A tactile ring fidget device with different textures. Outer ring spells WATAP with raised letters and braille dots."

#7 Microsoft Adaptive Accessories Mounts

#8 Microsoft Adaptive Mouse Tails and Accessories

#9 Mouth Stylus Holder by HuskyADAPT

Description: "Our mission is to create a mouth stylus holder that is more affordable than market price and is versatile for users to independently place and put down their stylus." - design team (Mark Fernandez, Laura Oliveira, Sawani Deshmukh, Emma Martin, Devanshi Desai, Sam Fleet)

Description Continued: This device is compatible with most cell phone holding mount/arm systems and offers an easily accessible resting place for a mouth stylus.

What is HuskyADAPT? "HuskyADAPT is a student organization at the University of Washington, Seattle campus that is dedicated to supporting accessible design and inclusive play technology. We train the next generation of inclusively-minded engineers, clinicians, and educators to help make the world a more equitable place. We do this through our three branches: Toy Adaptation, Design Teams, and Go Baby Go!"

Source: HuskyADAPT Design Project 2023-24 (For more information on the design process please request the Mouth Stylus Project Poster file)

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WATAP's 3D Printed Assistive Technology Program is available to all residents of Washington State. This program is intended only as a last-resort option. Because resources are limited, each household may receive no more than 5 items. This also means we do not provide any 3D printed assistive technology that has an affordable equivalent alternative option available on the market.

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Anycubic Kobra X 3D Printer: Ultimate Multi-Color Printing

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Discover the Anycubic Kobra X 3D Printer. Print up to 19 colors at 2X speed with 2X material savings. Features AI detection & perfect first layers. Shop now!

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Information and resources for WOOF3D, the 3D printing club at UW Seattle

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3D Printer Fails: Epic 3D Printing Failures 2022

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Epic ☆ 3D PRINTER FAILS ☆ Photos of failed 3D prints. Learn top reasons for 3D printing failures and don’t repeat their mistakes in 2022.

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3D Printing Failures: Navigating the Challenges for Printing Success

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Overcome 3D printing failures with expert guidance. Explore common challenges and tips for printing success.

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Failed 3D Prints, and How to Fix Them: 3D printers are seriously cool, but as of right now, they are new technology and pretty unreliable. I have a year of 3D printing experience, and I have tried and failed again and again trying to print various models on my printer. However, after fai…

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GitHub - andyeske/How-to-CAD-Almost-Anything: Welcome to How to CAD Almost Anything! In this repository, you’ll find the workshop’s slides, recordings and Solidworks files.

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Welcome to How to CAD Almost Anything! In this repository, you’ll find the workshop’s slides, recordings and Solidworks files. - andyeske/How-to-CAD-Almost-Anything

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Bambu Lab builds state-of-the-art desktop 3D printers that break the barriers between the digital and physical worlds. Explore High performance 3D printers on Bambu Lab official website.

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Original Prusa 3D printers directly from Josef Prusa

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Eshop by Prusa Research a.s., company founded by Josef Prusa, one of the RepRap core developers. We’re selling Original Prusa 3D printers (incl. Prusa i3), filaments (especially our in-house made Prusament), resins, and other accessories for 3D printing.

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A picture of Anna Gonzalez, the Program Assistant of the Texas Technology Access Program. 

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anna.gonzalez2@austin.utexas.edu

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 A young woman with long straight brown hair and soft natural makeup is smiling gently at the camera. She is wearing a white lace top and standing in front of a blurred background of green foliage.

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3D Printing Curriculum

PrintLab Classroom is an online platform of 3D printing lesson plans combined with a certified teacher training course. Our approach is to take inspiration from the innovative uses of 3D printing in industry and bring these through to education. The curriculum is aligned to a range of standards across different subject areas and challenges students to design assistive technology, reusable packaging prototypes, hands-free virus solutions and more.

View Lessons

A Toolkit for Educators

Our online toolkit allows you to pick and choose from 40+ projects to build your own pathway for students - saving you the time and stress of creating your own lesson plans. Each project is equipped with downloadable teaching materials such as presentations, workbooks and rubrics, as well as explainer videos and 3D design tutorials hosted on a student portal for a blended learning experience.

Start a FREE 7-Day Trial

For Libraries & Makerspaces

It's not just schools we support - libraries and makerspaces can provide members of all ages with access to our student portal, allowing them to work through exciting, self-paced courses and projects. The impact of this is sure to increase 3D printer usage and footfall in any creative organisation.

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3D printing lesson plans and courses to help teachers integrate 3D printing into the curriculum - featuring over 45 Tinkercad and Fusion 360 projects.

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Organisational support for 3D printing as an accessible format

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This page provides guidance regarding issues that organisations should consider in order to best support the adoption and sustainability of 3D printing as an accessible format for people with print…

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L'unico ecosistema di stampa 3D dedicato all'istruzione. Stampanti 3D affidabili e facili da usare. La più grande comunità di stampa 3D per educatori.

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A community-driven gateway to the 3D model universe

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Originally published March 7, 2019

Keyguard AT keyguards are generally secured to an iPad by attachment to the iPad case. As such, we need to know exactly which case you have. If you specify the wrong case, the keyguard won't fit, and you'll have to remake it at your expense.

We have made keyguards for nearly 400 different iPad cases! Including duplicates sold under different brand names, the number is about double. In the above picture, you can see one of our three racks of iPad cases. We test fit every keyguard to make sure it fits the specified case before we ship it.

If you have a case that we don't have listed on the products "To Fit Case" dropdown menu, specify "Other" case (at the bottom of the list) when ordering. We'll charge you a small fee to buy the case, measure it, design a keyguard to fit it, and make and test fit the keyguard. After that, we'll add it to our iPad rack and put it on our list so you can order keyguards to fit it in the future.

The following list shows some of the most popular, and some of the hardest to identify, iPad cases for attaching keyguards. We're adding to the list all the time, so check back here if you're ordering a keyguard for a case you haven't used before. The number after the case title is our internal case number. You can use that number to verify that you've chosen the right one in our "To Fit Case" list. When there are different versions of the same case, the illustration may also include tips on how to tell the difference.

Please check the page for the size of the iPad you have:

For the 7.9" iPad Mini 1/2/3/4/5, look here.

For the 8.3" iPad Mini 6, look here.

For the original iPad 2, 3 or 4 9.7", look here.

For the iPad Air/Air 2/5th-6th Generation 9.7", look here.

For the 10.2" iPad 7th-8th-9th Generation, look here.

For the 10.5" iPad Air 3 or iPad Pro 10.5, look here.

For the iPad 10th Gen 10.9", look here.

For the iPad Air 4/Air 5 10.9", look here.

For the 11" iPad Pro 11, look here.

For the 12.9" iPad Pro 12.9 1st-2nd Generation, look here.

For the 12.9" iPad Pro 12.9 3rd-4th-5th-6th Generation, look here.

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This blog helps to determine which model of iPad case you have.

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A picture of Nico Nelson, the Public Health Outreach Coordinator of the Texas Technology Access Program that is passionate about his role in 3D printing.

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nicholas.nelson@austin.utexas.edu

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The Dustin M. Sekula Memorial Library strives to offer our community access to new and emerging technologies to inspire a new interest in creation and collaboration. This policy establishes how and under what circumstances the public may use the 3D printer.

The Dustin M. Sekula Memorial Library 3D printer is available to the public for educational purpose to make three-dimensional objects in ABS plastic using a design that is uploaded from a digital computer file.

1. The 3D printer may be used for lawful purposes only. Patrons will not be permitted to use the printer to create objects that are:

Prohibited by local, state or federal law.

In violation of another's intellectual property rights; for example, materials that is subject to copyright, patent or trademark protection.

Unsafe, harmful, dangerous or that may pose an immediate threat to the well being of others; for example, guns, knives or other possibly lethal weapons.

Obscene or otherwise inappropriate items for the library environment.

2. The Dustin M. Sekula Memorial Library reserves the right to refuse any 3D print request.

3. Cost of 3D printing is $.10 per gram and cost includes weight of support, rafts and fillers.

4. Items printed from the 3D printer not picked up within 7 days will become the property of the Dustin M. Sekula Memorial Library. Items must be picked up by the individual who printed them. A requesting patron who does not pick up their print forfeits all future rights to use the 3D printer.

5. Patrons may only use the printer alongside designated library staff. Use of the 3D printer is at the discretion of the designated library staff.

6. Supervision of the use of the 3D printer by library staff does not constitute knowledge or acknowledgment of any unapparent final use of the 3D product and the library specifically disclaims any knowledge thereof.

7. 3D print objects must be smaller than 9"x9"x9" and objects are printed in a single color ABS plastic with a PolyPrinter 229 printer.

1. It is the responsibility of the requesting patron to design their own creation and prepare it for printing in .stl file format. Library staff is available for consultation or assistance only.

2. The design must be applicable for printing with ABS filament.

3. The design should be downloaded to a USB drive as a .stl file and that library staff are able to view the file for preapproval before printing.

4. Once the review of the file has been completed printing will be scheduled within a reasonable period of time. Same day printing is not assured. The Dustin M. Sekula Memorial Library reserves the right to schedule only one print per day per person or entity.

5. Once a design has been approved for printing, the requesting patron must be present for the initiation of the print process (i.e. 5 to 10 minutes, depending on the size of the print job, after the machine begins placing filament on the plate). Once the printing has begun the patron may leave and return within the designated time to retrieve their 3D print.

6. Print times are estimates and cannot be guaranteed.

7. The requesting patron must pay for the 3D print before it can be turned over to them. The requesting patron is responsible for all errors that occur during the printing process. If the object does not print correctly due to design errors, it is the responsibility of the user to pay for the object.

8. Patrons must clean their own rafts and supports. Small bumps or holes and rough edges on the object may occur.

This Policy and Procedure may change at any time.

While the Dustin M. Sekula Memorial Library staff make every effort to oversee the use of the equipment in the printing of an object, the use of the printed object upon completion, is not under the direction or control of the Dustin M. Sekula Memorial Library. The Dustin M. Sekula Memorial Library is not responsible for any object created with use of the 3D printer, including any harm or injury incurred as a result of any usage of the 3D printer or the object which is printed.

The Dustin M. Sekula Memorial Library abides by the copyright laws of the United States (Title 17, U.S. Code). These laws govern photocopying or creating other reproductions of copyrighted materials. All users of the 3D printer must abide by copyright laws, and it is the responsibility of the user to ensure that all prints are compliant with copyright laws.

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3D Printer Policy and Procedure Purpose The Dustin M. Sekula Memorial Library strives to offer our community access to new and emerging technologies to inspire a new interest in creation and collaboration.

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Getting Started

3D printer service is limited to Tyler Public Library cardholders.

An up-front fee of $2 (per item) is collected at the time of the request.

Complete the request form and submit it to library staff.

Designs are available on several sites: Thingiverse, MyMiniFactory, and YouMagine. Designs are also in the BOB notebook, which includes print projects completed by the Library.

Prints cannot be done in multiple colors unless there are multiple parts.

Color availability varies.

Turn-around time on prints cannot be guaranteed. Requests are generally printed in the order submitted and can take 1-2 weeks.

Prints are 15¢ for every gram of plastic used. This will be determined after the print is done.

Prints will be held for 14 days, and then they become library property.

Patrons pay for the print at the time of pickup. The patron is not charged for failed prints caused by staff error or hardware failure. Refunds are not given for prints that do not print as the patron expected or desired.

Patrons are responsible for desired post-processing for their print such as filing or removing support plastic. Library staff is unable to assemble a print that has multiple parts. Staff cannot be held liable for damages once the print has been given to the patron.

Payment is cash or check only. All funds go to BOB for supplies and the Friends of the Tyler Public Library.

Print Specifications

Prints must comply with copyright and safety restrictions.

Prints must be intended for lawful purposes and must not be prohibited by local, state, or federal law.

Prints that are dangerous or pose a threat to the well-being of others will not be printed. No print that may function as a weapon or part of a weapon will be allowed.

Library staff reserves the right to refuse a print job.
For additional assistance, ask the staff at the Information Desk.
3D Printer Order Form

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3D Printer Policy & Procedure | Tyler, TX

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3D printer service is limited to Tyler Public Library cardholders. An up-front fee of $2 (per item) is collected at the time of the request. Complete the request form and submit it to library staff. Designs are available on several sites: Thingiverse, MyMiniFactory, and YouMagine.

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The Library's 3D printer is a PolyPrinter 229. Patrons who would like to submit files for printing must use the form linked below. Only .stl file(s) are accepted. Library staff will schedule print jobs in the order received and notify the requestor when the job is complete. The patron is responsible for the cost of the completed object(s). Refunds will not be issued. Please allow up to 10 business days for your file to be completed. Patrons may have 10 files/objects in process at one time. Any file submitted over the limit of ten will not be printed, and will need to be re-submitted after the number of in-progress files is under ten. Files that will take longer than 10 hours to print will not be printed. The Library reserves the right to decline to print a 3D printed object for any reason. Patrons will be notified via email about the status of submitted files.
Download .STL files: Free Design Software: Filament Colors Available (ABS Filament):

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3D Printing Service at Flower Mound Public Library

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Get creative using our 3D printer

You can make toys, model parts, game pieces, and much more!

Getting Started

Choose designs from numerous websites, or create your own designs using open source CAD software.

Bring your .STL file in on a flash drive.

Staff will review the file with you, provide a total cost, and prepare your print job.

Cost is 10¢ per gram of plastic with a $1 minimum.

Once your object is completed, we will contact you to pick it up.

Specifications

Printer: PolyPrinter 229

Maximum size: 229 x 229 x 229 mm

Material: ABS plastic

Objects print in a single color

Accepted File Format: .stl

Rules

The printers may only be used for lawful purposes and be for objects appropriate for a public library environment.

Objects must not infringe upon any third party's intellectual property rights.

Object must not be illegal nor can they be construed as having the intent to harm.

Staff reserves the right to refuse any print request.

The library will not save or retain submitted files after printing is completed.

Staff will not modify or change models once submitted.

Frequently Asked Questions

How long does it take?
Normally the library will be able to complete print requests in 2 to 3 days. We will add your request to our print queue and contact you as soon as the item is ready for pick up.

How large is 10 grams of plastic?
The weight of an object depends upon how hollow or solid an object is designed and printed. Feel free to stop by the library with your .stl file and we can give you an estimate of weight and cost.

My object has multiple parts. Should I submit them as a single file or each as separate file?
You should submit each part or component of your object as a separate file. This allows the library to optimize the print settings for each component.

Can the library re-size my object for me?
During the design process users should refine the exact dimensions before exporting as a .stl file. Resizing designs once you are at the library is not reliable as library staff's ability to edit is limited and can introduce complications. We recommend designing your object in millimeters for best results.

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Get creative with the library's 3D printer.

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Can staff design or help me design my idea instead of getting the files from an online source? We are unable to provide one-on-one design service at the library. The Brownsville Public Library has a variety of information from different online sources to help get you started.

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The Zula B. Wylie Public Library offers 3D printing to any patron with a valid library card in good standing. The fee to use the 3D printing service is a $0.10 per gram fee for the weight of the printed object. A $1.00 minimum is due at time of pickup.

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STL file links in website

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Want to be GREEN with 3D Printing? Let Terrafilum® help you be GREEN! - Terrafilum

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We collect and reuse ALL types of unbroken 3D printing spools There are 3 ways to be green: If you're local, please feel free to drop them off at our facility. If you would like to get them out of your maker space, please collect 6 or more spools, box them, note the box dimensions [...]

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Home / 3D Printer Recycling Programs

Printerior offers recycling programs for businesses, schools, maker spaces, and hobbyists. We know that most failed prints end up going straight into the garbage, and with your help we can do something about that. For every KG of waste plastic you recycle you'll receive discounts on filament purchases.

If you are a hobbyist you can drop off your waste plastic at our facility in St. Louis or ship it to us. We do provide recycling bins for large volume printers, businesses, schools, and maker spaces. Contact us today to find out how you can save money and help reduce plastic waste. Contact Us

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Printerior offers recycling programs for businesses, schools, maker spaces, and hobbyists. We know that most failed prints end up going straight into the garbage, and with your help we can do something about that. For every KG of waste plastic you recycle you'll receive discounts on filament purchases.

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Feeding Tube Holder - Fabrication and Assembly Instructions Difficulty: Easy Steps: 6 Time Required: 1 hour Introduction Use this guide to build the feeding tube holder featured on this page. This item consists of 3 different 3D-printed products: the universal base; the extension assembly; and the feeding tube gripper. All

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Introduction

The 28″ Stove Knob Reacher/Turner requires a build plate volume of at least 29″ width, including supports and brim. We used a Modix Big 180X to print this device in PETG.
Requirements:

Large-format 3D printer (Build width greater that 28″)

Material: PETG

Nozzle Size: .8mm

Layer Width: .2mm

Supports: Yes

Build Plate Adhesion: Brim

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28" Stove Knob Reacher/Turner - Fabrication and Assembly Instructions Introduction The 28" Stove Knob Reacher/Turner requires a build plate volume of at least 29" width, including supports and brim. We used a Modix Big 180X to print this device in PETG.

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Material used to dissipate static electricity in a slow, controlled fashion to protect against unregulated static shock.  This is material used in resin printing and often important in prototyping. This material is used in the manufacturing of electronics and can be important when working with fragile electronic parts.

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Materials dissipate static electricity in a slow, controlled fashion to protect against unregulated static shock.

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We design Prosthetics for Products. Open source platform for 3D printable solutions to upper limb difference.

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Speech language pathologist who works in assistive technology. – 3D models

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Corner protector for babies by gdlzsilip

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Download files and build them with your 3D printer, laser cutter, or CNC. Thingiverse is a universe of things.

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Baby Bottle Handles - Philips Avent 260 ml by lautarol

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DISCLAIMER- I'm not responsible for any damage or injuries caused by the use of this design Baby Bottle Handles Philips Avent 260 ml They won't fit 125 ml flat top bottle neither sippy cup top. It's a tight fit! It's a remix, be sure to check the original design.

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New with twins Mom and I need hooks for the stroller so I designed this to use with a Graco Ready2Grow.

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Unbuckle Tool for Car Seats by molson8552

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Unbuckling kids from the car seat used to be difficult, not anymore! This unbuckling tool is designed to reduce the force required to release the buckle and ease strain on your thumbs, especially for someone with arthritis in their hands. Simply slip the tool around the clasp and squeeze, its that easy.

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This is a design that uses a magnet and safety pins to hold car seat clips up and to the side while putting baby in. Additional parts: Neodymium (rare earth) magnet, safety pin Supports not needed for the base piece, but supports will be needed for the clip piece.

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Fork and spoon support for person with disabilities

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This is a support for person with disabilities to use eating utensils. It is a multiple support where to apply fork and spoon, It is a single piece that fits the shape of the hand and where you can fit different types of forks and spoons, as well as a variety of other supports.

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3D Printing

Did you know that the MPLab offers 3D printing services? All you need to bring is your .stl design file on a USB drive. For all the information, please see our 3D Printing Brochure. There are many websites where you can find or create free 3D designs. Check out Thingiverse or Tinkercad for some examples.

Virtual Reality

Check our program calendar for virtual reality programs for kids, teens, and adults!

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Did you know that the MPLab offers 3D printing services? All you need to bring is your .stl design file on a USB drive. For all the information, please see our 3D Printing Brochure. There are many websites where you can find or create free 3D designs.

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I got this idea from a Thing I saw, but couldn't find it again. Let me know if you're the author and I'll add you into the credits. This was designed in GeoMagic and will fit only my forks :( my forks have handles that are 16.7mm at their widest and 2.2mm thick.

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An s-hook for my oven handle. The hook stretches to fit around the handle and then cannot fall off by itself. The default settings are for a 27 mm diameter handle. Note that the small diameter parameter isn't 27mm -- it needs to be larger to allow for enough space for the handle to fit through the 60 degree opening on the small end.

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Introduction: The Ultimate Self-adjusting Door Opener 9000 - 3D Printed

I am a (15 year old) 9th grade student of Arizona College Prep Erie Campus, and this is the 3D printed (potentially overkill) Ultimate Self-adjusting (non-contact) Door Opener.
Description
This is a door opener for using door handles without actually touching them (I jokingly call it the Door Opener 9000). This one is specially designed so that it can self-adjust to many door handle sizes, making it versatile and easy-to-use. Also, the user cannot easily touch the contact surface when gripping the door opener properly, making accidental contamination by touching unlikely.
Edit: I originally messed up the wording for "door handles" and referred to them all as "doorknobs". This device only works for the lever type door handles, not the round knobs! How does it work?
The Ultimate Self-adjusting Door Opener 9000 has a total of four parts, being the two grips/clamps and a plastic bolt and nut assembly. Only the grips are important as the bolt and nut are only used as a hinge. The two grips will clamp onto the door handle while you push down and rotate. These grips are meant to have a flexible strand of string/filament in between them so that the self-adjusting action can work flawlessly. However, the mechanism can still be manually controlled without the flexible string/filament.

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Supplies

This tool is mostly 3D printed. None of the 3D printed parts require support as long as you print them in the correct orientation. Here is the list of supplies you will need to make this thing:

Well-tuned 3D printer

Opaque rigid filament

One small strand of flexible string/filament (optional)

Super glue or fast-setting epoxy (optional)

As for print settings, these are what I recommend:

Any appropriate layer height (I used 0.2mm)

Any appropriate nozzle diameter (I used 0.4mm)

10% or less rectilinear infill (to save on filament)

Step 1: Design Overview - the "Purple" Grip

The design overview is a part of the instructable that shows how I designed the door opener. It is not meant to be recreated exactly one-to-one, but it gives the reader a basic understanding of how I went through the workflow to design such tool. You may skip the design process steps if you are not interested in looking at how I designed this.
This is the purple grip. It is one of the two grip parts, and this one has a handle on top.

Step 2: Design Process - Purple Grip - Body

I started off with a sketch consisting of mainly circles and slots and extruded by 80mm.

Then I used the same sketch to cut out a hole for the handle.
As easy as that, the purple grip is done (for now).

Step 3: Design Overview - the "Blue" Grip

This is the blue grip. It is the grip part that actually rotates.

The steps I used to design this can be optimized, but it works.

Step 6: Design Process - Blue Grip - Third Sketch

Create a sketch like shown in the first picture. And for the next three sub-steps, keep the purple body hidden.

Then I performed three extrusions:

1. Extrude the part of the sketch shown in the picture (the narrower grip part) by 80.2mm

2. Extrude the entire face using the "two sides" option, one side is 80.2mm and the other is 85.2mm. This will create an exact offset on the other side of the part.

Step 7: Design Process - Blue Grip - Hinge Cutout

Re-enable either sketch 1 or 2 and extrude the 9mm hole in both directions on the "cut" operation.

Step 8: Design Process - Blue Grip - Thumb Rest

If you were to make this, this step is optional, but I added a thumb rest to the part so that you can control the rotation with your thumb.

This is done by drawing a 15mm diameter circle on one side of the blue grip and extruding it down by 3mm.

I then repeated the same step for the other side.

Step 9: Design Process - Fillets and Chamfers

Add fillets and chamfers to the parts. This is not only for aesthetics, but also for the door handle to slip in easier.

The most important places to add chamfers are: the bottom (inner edge) of the grips and outer edges of the thumb rest.

All the fillets and chamfers are highlighted in the picture.
And that's the grip parts done!

Step 10: Design Overview - Bolt

This is the bolt. The bolt and nut act like a hinge for the grips.

The following two steps will describe the design of the bolt.

Step 11: Design Process - Bolt - Body

Make two circles, one being 9mm, and the other being 15mm. The 9mm circle while be the bolt shaft while the 13mm circle will be the bolt head.

Extrude like shown. The first extrude (on the bigger circle or bolt head) is by 5mm and should be on "new body" operation. The second extrude (on the smaller circle or bolt shaft) should be 96.2mm like shown in the picture.

Step 12: Design Process - Bolt - Thread

Using the super convenient thread tool (found in the "create" menu), make a thread that follows the parameters shown in the picture. It should only have a length of around 7mm.
And that's the bolt done.

Step 13: Design Overview - Nut

This is the nut, which is going to be mounted on the bolt to keep the hinge in place. It is not meant to be screwed on tight as that would limit the motion of the grips.

The following two steps will describe the design of the nut.

Step 15: Design Process - Nut - Thread

Create a thread in the inner walls of the nut using the same thread tool that's found in the "create" menu. Keep in mind that the thread should be of the same thread profile as the bolt.
And that's the nut done!

Step 16: Design Process - Thread - Clearance

Some printers really don't like to print threads, so I often offset them a little using the push pull tool. The amount of offset depends on your printer. I usually do -0.1mm for both the thread profile and the outer diameter.

Step 17: Design Process - Finishing Touches

These are just some finishing touches. I added extra chamfers to some parts and insert holes on the sides of the grips for easier gluing of the piece of flexible string/filament.
And that's everything in the design process!

Step 18: Overview - Design Files

Attached are the .step and .f3d design files. You are free to edit and redistribute them in any noncommercial manner.

Step 19: Assembly - 3D Print

3D print the following parts in orientations shown in the picture. No supports are required.

1x Purple grip

1x Blue grip

1x Bolt

1x Nut

Step 20: Assembly - Animation

Follow this animation to assemble this tool.
Here is a breakdown of the steps:

Put the purple grip in between the two outer plates of the blue grip

Align the holes that are present on both the grips

Insert the bolt into the hole

Screw the printed nut into the bolt to lock it in place. Finger tight or even loose is enough as the nut is only to keep the bolt from falling out.

Step 21: Assembly - Flexible Piece

Get a piece of flexible string or flexible filament. I used 82A Filaflex, but Ninjaflex or even 95A TPU would work as well.

Fill the premade holes with super glue or fast setting epoxy, and then insert the flexible piece. Let it set for a period of time depending on which glue you use.

Don't use regular glue as they are often not strong enough. Unless you're talking about flex glue of course, they are overqualified for the job ;) (just kidding).

There should be just enough tension that the grips want to stay closed, but not so much that the grips would not easily open.

Step 22: How It Works

How do you make sure make sure it doesn't slip on the door handle?
The two grips basically clamp onto the handle to keep the tool from slipping. The flexible material between the two grips ensure that clamping force is always applied.
How does is this tool self-adjusting?
The flexible material in between the two grips allow for use with door handles of different sizes as it will always maintain a clamping force.

Step 24: Conclusion

And that's it! I hope you liked my instructable and maybe print one of your own to use at home.
In any case, I hope you have a wonderful day! :)

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The Ultimate Self-adjusting Door Opener 9000 - 3D Printed

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The Ultimate Self-adjusting Door Opener 9000 - 3D Printed: I am a (15 year old) 9th grade student of Arizona College Prep Erie Campus, and this is the 3D printed (potentially overkill) Ultimate Self-adjusting (non-contact) Door Opener. Description This is a door opener for using door handles without actuall...

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This is a 3D-printed modification to the Homecraft Rolyan Pick-Up Reacher. The work was undertaken as part of a project for Remap. Remap is a UK-registered charity that custom-make equipment to help disabled people live more independent lives.
Links to download the free 3D design files can be found at the end of this article together with options to order a 3D print and/or design modification from us.
The problem with the standard grabber was that it only pinches the sides of an object if you pick it up from lying down. The modification with wider jaws and a design that curves round means that it can get underneath the object to 'scoop' it... making it easier to pick up (and also maintain hold with a weaker grip).

This short video demonstrates the benefits of using the modification compared to the original...

"[The client] was very impressed with the modified unit. It was very versatile ... she was able to pick things off the floor (seated in wheelchair) also from the worktop from a standing position... It was a project very well done."
Remap Project Coordinator

For each arm there are two 3D-printed parts. The main arm and an aesthetic cap (as illustrated in the images below). For security a small amount of hot-glue was used. For additional security, the design has a recess for a short screw to be added. Finally, for additional grip / friction, a silicon strip was glued along the contact edge (you can see this in blue on the video above). This strip can be made from a pair of rubber gloves or a swimming cap if you're unable to source suitable material.

You may also wish to view more grabber designs in our library.
To download the file(s) for this design, please click here. If you'd like to learn more about ordering a print or requesting a design modification, please see our 3D Design and 3D Printing services page.

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This is a 3D-printed modification to the Homecraft Rolyan Pick-Up Reacher. The work was undertaken as part of a project for Remap. Remap is a UK-registered charity that custom-make equipment to help disabled people live more independent lives.

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Bespoke 3D Printed Independent Living Aids

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Review the library's 3D Printer Policy

Email 3Dprinting@wylietexas.gov for online ordering or bring your .STL file on a flash drive to the Help Desk

Staff will review your file and give you an estimated cost

The cost to print is $.15 per gram with a $1.50 minimum

Library staff will contact you when your print job is ready for pickup

Objects will be held for 7 days for pickup

Design Creation

Use 3D drafting software to create a design. Any program may be used as long as the file

can be saved in .STL format.
Many are available from the Internet and are free to use:
Use a pre-existing design repository (such as Thingiverse). Look for free designs that have printed successfully.
Technical Specifications

Maximum Size of 3D printer bed (for best results): 8" x 8" x 8" (203 mm x 203 mm x 203 mm)

Material: ABS (ABS is not considered food safe)

Printer: PolyPrinter 229

Objects print in a single color and the selection of colors is subject to availability. The Library has the following colors on hand:

Accepted file formats: .STL

No patron will be permitted to use the Library's 3D printer to create material that is:

Prohibited by local, state or federal law.

Unsafe, harmful, dangerous or poses an immediate threat to the well-being of others.

Obscene or otherwise inappropriate for the library environment or violates the Library's Patron Behavior Policy.

In violation of another's intellectual property rights. For example, the printers will not be used to reproduce material that is subject to copyright, patent, proprietary or trademark protection.

If you have any questions please call the Help Desk at 972-516-6250 option 3.

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Review the library's 3D Printer Policy Email 3Dprinting@wylietexas.gov for online ordering or bring your .STL file on a flash drive to the Help Desk Staff will review your file and give you an estimated cost The cost to print is $.15 per gram with a $1.50 minimum Library staff will contact you when your print job is ready for pickup Objects will be held for 7 days for pickup Design Creation Use 3D drafting software to create a design.

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To submit files for 3D printing, bring an .STL file on a USB flash drive or you may submit it online using the 3D Printing form.

3D Printer Policies and Procedures
Purpose
The Library desires to offer community access to new and emerging technologies such as 3D printers to inspire a new interest in design and help the community to bring their creations to life. This policy establishes how and under what circumstances the public may use the Library's 3D printer.

Policy
The Library's 3D printer is available to the public to make three-dimensional objects in plastic using a design that is uploaded from a digital computer file.

1. The Library's 3D printer may be used only for lawful purposes. The public will not be permitted to use the Library's 3D printer to create material that is:

1. Prohibited by local, state or federal law.

2. Unsafe, harmful, dangerous or poses an immediate threat to the well-being of others. (Such use may violate the terms of use of the manufacturer.)

3. Obscene or otherwise inappropriate for the Library environment.

4. In violation of another's intellectual property rights. For example, the printers will not be used to reproduce material that is subject to copyright, patent or trademark protection.

3. The Library reserves the right to refuse any 3D print request.

4. Cost: 3D printing at the Library is $.10 per gram of filament.

5. Only designated Library staff will have hands-on access to the 3D printer.

Procedures
The procedure for printing from the Library's 3D printer is as follows:

1. Design creation:

1. The 3D printer can be used with basic knowledge of Computer Assisted Drawing (CAD). Creating a new design requires an advanced knowledge of 3D modeling software products. Video tutorials that accompany CAD programs can be of assistance.

2. Any 3D drafting software may be used to create a design as long as the file can be saved in .stl, .obj, or .thing file format.

3. The Library has computers with AutoCAD and Photoshop software that may be used to create a design.

4. Digital designs also are available from various file-sharing databases such as Thingiverse.com.

3. Submitting a design for printing:

Definitions

1. Persons wanting to use the 3D printer shall bring their file (in .stl, .obj, or .thing file format) (no larger than 25MB) to the DesignSpot during open hours. Staff will add the model to the printing queue.

2. If there is high demand, the Library will schedule only one print per day per person or entity.

3. The files will be readied for printing in MakerWare or other authorized software. The Library will view all files in MakerWare or other authorized software before printing.

4. Wait/pickup time: Items may be picked up at the DesignSpot. It is sometimes difficult to estimate exact print times. Library staff will make an educated guess about the length of a job upon request.

2. Please note that procedures governing the use of the Library's 3D printers are subject to change.

3D printing: the process of making a physical object from a digital model.

3D Printer: A 3D printer uses melted plastic to produce objects designed on a computer.

CAD: Computer Assisted Drawing

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3D Printing | DeSoto, TX - Official Website

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To submit files for 3D printing, bring an .STL file on a USB flash drive or you may submit it online using the 3D Printing form. Purpose The Library desires to offer community access to new and emerging technologies such as 3D printers to inspire a new interest in design and help the community to bring their creations to life.

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This tutorial will guide you through using the PolyPrinter 3D printer in the TinkerSpot center at the Arlington Public Library.

NOTE: You can generate stereo lithography (STL) files from any 3D drawing software you prefer (Ex. Tinkercad, Openscad, etc). If you already generated STL files from your 3D model, skip to "Now that you have an STL file section."

Website: Thingiverse is available online through any web browser at www.thingiverse.com

Apps: You can use most features of Thingiverse through the iOS Thingiverse app the Android Thingiverse app, or the MakerBot Desktop App.

Logging in: You don't need an account to view or download Things, but if you want to like, follow, collect, customize, upload, or use Groups and Messaging, then you'll need to be signed in with a free MakerBot Thingiverse account. From thingiverse.com, click on "Sign In / Join" to get started.

Finding designs: From the top of the main Thingiverse page you can see " Featured Designs and Collections". To find more designs, check out the "Explore tab" to view Things, Customizable Things, Categories, and Collections, or just use the Search field to find exactly what you're looking for. Or browse through some excellent curated content with glitch pudding's Collection of Collections.

Downloading designs: Once you locate a "Thing" you want, press "Download This Thing!" to see a list of the files that are available. Filetypes STL and OBJ are intended for 3D printing.

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This tutorial will guide you through using the PolyPrinter 3D printer in the TinkerSpot center at the Arlington Public Library. NOTE: You can generate stereo lithography (STL) files from any 3D drawing software you prefer (Ex. Tinkercad, Openscad, etc). If you already generated STL files from your 3D model, skip to "Now that you have an STL file section."

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STEM PJ Story Time #15: Dinosaur Woods by George McClements

Read by Anne-Elisabeth Baker, of Precious Plastic UH. Anne-Elisabeth shows us how to recycle plastic scraps!

STEM PJ Story Time #14: Harlem Grown by Tony Hillery

Read by Dr. Bandana Chawla, of Lifestyle Docs Clinic. Dr. Chawla helps us learn more about nutrition and healthy eating.

STEM PJ Story Time #13: I Am Peace by Susan Verde

Read by Dr. Munish Chawla, of Peaceful Planet Foundation. Dr. Chawla helps us learn more about mindfulness.

STEM PJ Story Time #12: Bloom Boom! By April Pulley Sayre

Read by Natalie Rodgers, of Houston Center for Photography. Natalie shares a look inside HCP and photography inspiration.

STEM PJ Story Time #11: I Don't Draw, I Color! by Adam Lehrhaupt

Ready by Sneha Bhavsar, who shares her experience of being a professional artist with us!

STEM PJ Story Time #10: Father's Chinese Opera by Rich Lo

Read by Claire Williamson, Director of Education & Community Engagement at Society for the Performing Arts.

STEM PJ Story Time #9: Chicken In Space by Adam Lehrhaupt

Read by Jennifer Thompson, electrical engineer at Boeing. Jennifer and her team in Houston support the International Space Station.

STEM PJ Story Time #8: Love By Sophia, written by Jim Averbeck

Read by Elizabeth Roath Garcia, Manager of Studio and Gallery Programs at the Museum of Fine Arts, Houston.

STEM PJ Story Time #7: Lights! Camera! Alice!: The Thrilling True Adventures of the First Woman Filmmaker by Mara Rockliff

Read by two-time regional Emmy winner Jerod Couch. Jerod and his work have been featured in ESPN, USA Today, Sports Illustrated, and more. Visit his website at CreativeCouch.

STEM PJ Story Time #6: Invent-A-Pet by Vicki Fang

Read by Israel Garza of HCC's IDEAStudio on the West Houston Institute campus

STEM PJ Story Time #5: Rosie Revere Engineer by Andrea Beaty

Read by Bryan, a robotics engineer for NASA space projects as well as vice president for Creatorspace which is a non-profit in Clear Lake. His favorite thing to do is share the joys of hands-on STEAM with the community.

STEM PJ Story Time #5: Rosa Pionera, Ingeniera por Andrea Beaty

Este cuento lo lee Estefannie - una ingeniera de software, diseñadora, inventora, oradora pública, así como escritora, productora y estrella del canal de YouTube " Estefannie Explains It All."

STEM PJ Story Time #4: Boxitects by Kim Smith

Read by Bernard Li, an engineering student at the University of Houston, lead technician at the M.D. Anderson Library, and founder of University Drone Pilots.

STEM PJ Story Time #3: What do you do with a problem? by Kobi Yamada

Read by Estefannie, a software engineer, designer, inventor, public speaker as well as writer, producer, and star of the YouTube channel "Estefannie Explains It All"

STEM PJ Story Time #2: Iggy Peck Architect by Andrea Beatie

Read by Israel Garza of HCC's IDEAStudio, a makerspace at the West Houston Institute

STEM PJ Story Time #1: What Do You Do with an Idea? by Kobi Yamada

Read by Charlotte Craff of re:3D, a Houston-based giant 3D printing manufacturer
Free 3D Print File: "The Idea"

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Read by Anne-Elisabeth Baker, of Precious Plastic UH. Anne-Elisabeth shows us how to recycle plastic scraps! Read by Dr. Bandana Chawla, of Lifestyle Docs Clinic. Dr. Chawla helps us learn more about nutrition and healthy eating. Read by Dr. Munish Chawla, of Peaceful Planet Foundation. Dr. Chawla helps us learn more about mindfulness.

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The 3D printers are managed by Library staff. Patrons must submit their 3D print job as an .STL file using the online form below. Once notified by staff that a 3D print job is ready, patrons should visit the Library to pay for and pickup their print.

Steps to Submit a 3D Print Job:

1. Submit a 3D print job as an .STL file using the green button below. Library staff will do their best to complete 3D print jobs as quickly as possible. However, due to several variables involved with 3D printing and limited hours of operation, wait times may vary.

2. Receive an email from library staff notifying you that your 3D print job is ready for pickup.

3. Visit the Library Accounts Desk to pay for and pickup your print.

The 3D print fee is based on the weight of the object and calculated at $0.10 per gram.

3D print jobs are held for pickup for one week.

If you prefer to pick up your 3D print at the drive-up window, email staff at TheHive@cityoflewisville.com to make these arrangements.

Important Notes About Submitting 3D Print Jobs

All patrons submitting a 3D print job must have a valid full privilege Lewisville library card in good standing and have read The Hive User Guidelines and the guidelines for submitting 3D print jobs.

3D designs can be created using Tinkercad.com, a free online platform. Other free, online design programs include, Blender.org and OnShape.com.

Designs must be less than 9" x 9" x 9" in order to fit on the print bed.

Due to limited hours of operation, 3D designs must take less than 8 hours to complete.

Print job files must be in .STL format

Free digital designs are available on sites like MyMiniFactory.com. The creators of the shared designs on these sites may have restrictions on usage, so please read carefully.

Per Library guidelines, The Hive is intended for hobbyist and prototyping purposes. Mass production of goods cannot be supported in The Hive. The production of dangerous items, weapons, and weapon accessories is prohibited. No production on machinery in The Hive may violate U.S. or international copyright law.

A Google account is currently required to submit 3D print jobs using the online form below. We are working on an alternative method for submitting 3D print jobs for those that do not have a Google account.

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The 3D printers are managed by Library staff. Patrons must submit their 3D print job as an .STL file using the online form below. Once notified by staff that a 3D print job is ready, patrons should visit the Library to pay for and pickup their print.

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Give Your Creativity DimensionPrint in 3D
Get creative using our 3D printer. Choose designs from numerous websites, or create your…

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3D Printing | Grapevine, TX - Official Website

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What is 3D printing? 3D printing is the process of making a 3D object from a digital file. You can create your own models through software such as Tinkercad (featured below) or use objects created by other people from websites such as Thingiverse.

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Overview

The Pfab Lab is a makerspace that is located inside the library. The lab is equipped with craft tools like 3D printers, circuits, a sewing machine and other basic crafting supplies. The following equipment is available in the Pfab Lab. Currently, the Pfab Lab is open for programs. We offer programs that feature our tools on a rotating basis.

Upcoming Demos & Classes

Equipment List

Frequently Asked Questions

When is the Pfab Lab open?

The Pfab Lab is open for scheduled appointments Sundays from 2pm-5pm and Wednesdays from 4pm-6pm. Monthly trainings are held for Sewing, Embroidery, 3D printing, Laser cutters, and Electronic cutting machines. Other open times include public programs listed on the event calendar.

Are there age restrictions for the Pfab Lab?

Program participants must be at least 8 years old to enter the Pfab lab. Children ages 8-11 years of age must be accompanied by a parent. Please see program descriptions for suggested program ages.

How can get I my 3D files printed?

We accept print jobs from library patrons via email at 3Dprint@pflugervilletx.gov. We accept .stl files for printing. Visit out 3D printing page for printing options and policies.

How can I get involved?

Contact Bette at bettem@pflugervilletx.gov for more information about volunteering and teaching opportunities. We are open to working with makers of all types for demos and classes.

Policies

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Pfab Lab & 3D Printing | Pflugerville Public Library

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Tactile symbols help individuals who are blind or visually impaired, and may also have complex communication disabilities, to express themselves.
Note that his work was inspired by the 3D tactile symbols created by Project Core at the University of North Carolina - Chapel Hill. While their tactile symbols are certainly "tactile", they are largely opaque, often with no clear relationship between the raised shape and its referent.
Why Blissymbols?

Blissymbolics, originally created by Charles Bliss in 1947, is a conceptual, constructed, international, ideographic, generative language. Though Blissymbols have traditionally been used in written form, they are uniquely positioned for use as a tactile language:

"Due to their simplicity, edges, outlines, and kinesthetic feedback are optimized in raised-line renderings of Blissymbols, which may facilitate recognition of tactile Blissymbols. In short, the conformational characteristics of Blissymbols results in stimuli that have minimal complexity (or low potential cognitive load) and when rendered as raised-lines have characteristics that may increase the efficiency of perceptual/cognitive processes involved in communication with tactile symbols."

The potential for developing a tactile communication system based on Blissymbolics, Mick D. Isaacson & Lyle L. Lloyd, Developmental Neurorehabilitation, 2015; 18(1): 47-58

More on Blissymbols

For a quick-and-dirty (or more in-depth) understanding of Blissymbols, refer to the links below.

* to be released in PDF format later this year

What's wrong with "traditional" tactile symbols?

Go here to read more about this topic.

Why isn't the Project Core set of tactile symbols enough?

There's a lot to say on the topic, so go to this page to read more.

Why not leverage a "standard" AAC graphic symbol set?

Again, a lot to say, so go to this page to read more.

What would a useful, tactile symbol-set look like?

We have our opinion... go to this page to hear what we think and why we think Blissymbols are the place to start and our Bliss Tactile Symbols are the way to get there.

Downloading our Core Concepts Symbols

We have created over 240, ready-to-3D-print, Bliss Tactile Symbols. We call them the "Extended Core Words for Students with Intellectual Disabilities". You can download them in bulk or individually on this page.

Classroom Supports

We recognize that learning a new symbol set is a challenging process. You can't simply place a raised shape in front of someone and expect them to have all the skills necessary to tactilely explore the shape, cognitively interpret the sensations, and recognize the shape as a specific concept. We've created several assets to build the scaffolding for that understanding and for developing the necessary skills to be successful.

Lesson Plans - we've put together some simple lesson plans that you can use as written with these assets, or modify to meet your needs.

Documentation - we provide three documents in support of our core words: the first document, shows all concepts in our extended core word set organized by and color coded by word class. The second is a spreadsheet, containing all the words in the extended set along with their word class, Blissymbol, and a rational for the design of the symbol. The third is an outline of basic shapes that are combined to form a Blissymbol.

Remedial and Motivational Tools - if you anticipate, or discover, that you student will have difficulty tactilely processing a particular Blissymbol, you can break that symbol up into parts and teach the parts as well as how they assemble into a whole. On the other hand you can inject more fun into your instruction by offering the student challenge tiles and puzzles to reinforce the concepts that they're learning (or have learned).

Creating New or Modifying our Core Bliss Tactile Symbols

Our Bliss Tactile Symbol designer makes it easy to create the specific set of symbols that you need for your day-to-day instruction. You have full control over their size, their layout, and their content. Over 240 core word/concept symbols have been pre-created for your use. All you have to do is 3D-print them. You can also easily tweak the designs of these symbols if you need something a little different. You can leverage the vast, pre-approved Blissymbol set provided by Blissymbolics Communication International to create new symbols. You can even create your own "slang" words for your students and clients to use in their interactions.

This page will take you through the process of downloading and using the Bliss Symbol Designer to modify our out-of-the-box designs, and/or to extend the designs for your needs.

This page will support you in creating your own, non-3D-printed, Bliss tactile symbols using everyday crafting tools.

Creating New Remedial and Motivational Tools

You can construct these tools for yourself using our Bliss Tiles designer.

Blissymbols on an AAC Device

If your AAC device allows you to add your own images to the device, this page describes how you can access the Core Words symbols as graphic images.

Voice It

The Voice It is a DIY device that speaks a word or phrase when an object containing an RFID tag is brought near-by. RFID tags are small and very cheap. Bliss Tactile Symbols can be printed with a small pocket inside to insert one of these tags. Students can use the Voice It to remind themselves what the graphic on the symbol represents just by touching the Voice It with the symbol. The Voice It comes with recorded vocabulary in English and Spanish for all concepts in the Bliss Tactile Symbol Extended Core Vocabulary. Like the Bliss Tactile Symbols, the Voice It has extensibility built in. You can use the Voice It with Challenge Tiles as well - but no reason to stop there. If you can attach an RFID tag to something, you can describe it with the Voice It.

Perfect for Kids!

Finally, how can you object to any symbolic language that comes with pre-approved, international symbols for words that kids can't live without?!

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Tactile symbols help individuals who are blind or visually impaired, and may also have complex communication disabilities, to express themselves. Note that his work was inspired by the 3D tactile symbols created by Project Core at the University of North Carolina - Chapel Hill. While their tactile symbols are certainly "tactile", they are largely opaque, ...

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Cults・Download free 3D printer models・STL, OBJ, 3MF, CAD

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World's leading independent website for 3D printer files・Download the best objects for 3D printing・Share your designs on Cults3D the biggest DIY community.

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Printed on my (Most Delta RepRap) Athena II using Black Hatchbox 1.75 mm PLA at 210 degrees. 50% infill and 2 perimeters. Layer Height is 0.15 mm with a skirt and glue stick. Printed at 30mm/sec walls and 40 mm/sec infill speed for high quality but could be faster. Supports were used to ensure a good print.

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Unbuckling kids from car seats is not an easy task, hand arthritis makes it even worse, but not anymore! Introducting a 3D printed simple tool that reduces the force required to unbuckle car seats. Similar commercial products can be purchased for $14.99 plus s&h(https://www.amazon.com/stores/node/17524481011?_encoding=UTF8&field-lbr_brands_browse-bin=UnbuckleMe&ref_=bl_dp_s_web_17524481011).

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This is a design for the MY4777 3D printing class at Michigan Tech. This is for the Adaptive Aid project. I chose to design and print an aid for helping people with arthritis use scissors. I printed the base at low infill to reduce material costs, the rest of the parts need to be strong, and require a higher infill.

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Orthosis for Typing and touchscreen by GabrielaB

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This is an orthosis designed for people who have lost their hand control (reduced or complete lack of movement of their fingers). It allows the use of keyboard and touchscreen.
This object was made for the “Mutual de Seguridad C.Ch.C” from Chile. In a project of the Direction of innovation and devel…

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Baby Syringe Storage Rack by Eighty_eighth

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I needed something to store and dry the syringes we use for our baby's medicine after rinsing them out. So I designed this syringe rack. This saves time when preparing our child for bed. It also keeps them clean because we used to just lay them on our counter.

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My baby grew up too fast and took all of the room on her changing table. I decided to make this wipes holder so that I could have my baby on top of the changing table with having the wipes right next to it. This was designed for the Sorelle Berkley 4 in 1 convertible crib. It snaps onto the side of…

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Breast Pump Container Stand by Jimmarks84

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As nursing moms know, you can, will, and do cry over spilt milk. I designed this for my wife to keep her milk pumping bottles from tipping over while she went to get a container or fiddle with the pump or baby. The hoses and trumpets make the bottles very top heavy and prone to tip and spill.

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Magnetic Drawer Lock (child safety) by davem80

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This is a remix of the magnetic cupboard locks by user Non-ICE, however this design is made for use with pull-out drawers instead of cabinets/cupboards.
Additional hardware required per lock:
#6 x 1″ screw or similar (x2)
8mm x 3mm cylindrical magnet (x1)
The thin profile allows for installation in…

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Wickeltaschen-Halter / -Adapter für ABC Design Kinderwagen (Diaper bag holder for stroller) by TheGooNie

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Deutsch: UPDATE 3: Ein (experimenteller) Halter für meinen Flaschen-Halter (http://www.thingiverse.com/thing:3454127) hinzugefügt. Basiert auf die "big"-Version mit 26 x 5 mm Öffnung. UPDATE 2: Eine noch größere Version des Halters hinzugefügt, von 5mm auf 7mm. UPDATE: Eine etwas größere Version wurde hinzugefügt.

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Standard Tessellation Language (STL) is a way to save a file to represent the whole part (the object you will print). The 3D printing software can then use it to turn into simple layered printing instructions for the 3D printer. You will see it as the last 3 symbols of a file as in "dog.stl".

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Dassault Systèmes SOLIDWORKS Corp. develops and markets 3D CAD design software, analysis software, and product data management software. SOLIDWORKS is the leading supplier of 3D CAD product design engineering software.

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Autodesk is a global leader in software for designers, engineers, builders, and creators. Our Design and Make Platform empowers our customers with the technology to create the world around us. #MakeAnything

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Autodesk empowers innovators everywhere to make the new possible

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Autodesk is a global leader in design and make technology, with expertise across architecture, engineering, construction, design, manufacturing, and entertainment.

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Real World Results with Onshape

Explore an all-in-one platform for passionate designers.

Start developing your products better, faster, smarter.

"Due to its agile product design approach , we are able to build products faster and run design sprints on hardware products flawlessly."

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"Easy to use CAD system providing a single source of truth for files and drawings and a CAD solution that sensible includes PLM as part of the design instead of an afterthought."

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Onshape is a product development platform that brings together all the tools needed to develop a product from conception to production.

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Andrew Mustun

The Open Source CAD System For Everyone

QCAD is a free, open source application for computer aided drafting (CAD) in two dimensions (2D). With QCAD you can create technical drawings such as plans for buildings, interiors, mechanical parts or schematics and diagrams. QCAD works on Windows, macOS and Linux. The source code of QCAD is released under the GPL version 3 (GPLv3), a popular Open Source license.

The current version of QCAD is 3.26.

QCAD was designed with modularity, extensibility and portability in mind. But what people notice most often about QCAD is its intuitive user interface. QCAD is an easy to use but powerful 2D CAD system for everyone. You don't need any CAD experience to get started with QCAD immediately. You can download QCAD today for free!

Main Features

Layers

Blocks (grouping)

35 CAD fonts included

Support for TrueType fonts

Various Metrical and Imperial units

DXF and DWG input and output

Printing to scale

Printing on multiple pages

Over 40 construction tools

Over 20 modification tools

Construction and modification of points, lines, arcs, circles, ellipses, splines, polylines, texts, dimensions, hatches, fills, raster images

Various powerful entity selection tools

Object snaps

Measuring tools

Part library with over 4800 CAD parts

Very complete and extremely powerful ECMAScript (JavaScript) scripting interface

Command line tools (dwg2pdf, dwg2svg, dwg2bmp, etc.)

QCAD/CAM:

Click here for a complete list of features.

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QCAD is a free, open source 2D CAD system for Windows, Linux and Mac.

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LibreCAD is a free Open Source CAD application for Windows, Apple and Linux. Support and documentation are free from our large, dedicated community of users, contributors and developers.

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DraftSight® 2D CAD Drafting and 3D Design Software | DraftSight

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Discover DraftSight®: professional-grade CAD software that lets you create, edit, view and markup any kind of 2D and 3D DWG file with greater ease, speed, and efficiency.

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Ace Centre Learning is introducing a series of training courses on Computer Aided Design (CAD) in Assistive Technology in (AT) aimed at makers, engineers, designers, technologists and others involved in the development of assistive technologies with no or low knowledge of computer-aided design tool…

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11 April 2022: Assistive Technology Conference of New England 2021-2022

This special conference spans six months with two or three afternoon workshops held virtually each month. I provided a three-hour workshop titled: 3D-Printed Keyguards - from Soup to Nuts. Here's a recording of the workshop:

And here's the PowerPoint slide deck with notes.

The workshop lasted over 3 hours. You can jump to particular topics with these (slide #'s) and times:

Starting to print the example keyguard (6): 0:08:10

Why a 3D-printed keyguard? (7): 0:12:05

Types of keyguards (9): 0:16:05

Designing our example keyguard (10): 0:20:50

Tablet info (17): 0:34:40

Tablet Case info (18): 0:36:05

App info (21): 0:44:30

Grid info (26): 1:07:35

Hybrid features: Rectangular cut (31): 1:23:30

Hybrid features: Outer arc (35): 1:32:35

Hybrid features: Engraved text (39): 1:39:10

Hybrid features: Case additions (42): 1:49:30

Test keyguard fit with screenshot (45): 1:57:00

Mounting options (47): 2:08:30

Creating the STL file (50): 2:17:45

Advanced Grid-based concepts (51): 2:22:05

Managing multiple keyguard designs (62): 2:46:45

Free-form keyguards (66): 2:56:35

Laser-cut keyguards (68): 3:06:50

Keyguards for Chromebooks and iPad keyboards (71): 3:20:25

23 June 2021: Gemma presents at AAC in the Cloud

We've been working with Gemma White off and on for the last four months, helping her develop her 3D-printable keyguard design chops. Gemma is an SLP and is the Assistive Technology Program Clinical Coordinator at the Westchester Institute for Human Development. Gemma devoted a large portion of her presentation at AAC in the Cloud to the keyguards she was able to design and provide to her clients...

18 May 2021: Presentation to IT group at Virginia Tech

Scott Chandler had heard my CSUN presentation and commented: " I thought Ken Hackbarth's session "3D-Printed Keyguards - Your Gateway to 3D-Printed AT" at CSUN was the most delightful and surprising session at the conference: just truly outstanding and unlike anything else at CSUN or axe-con. It really changed my thinking and sparked my interest in a topic outside my wheelhouse. ". He asked if I could make my presentation for a group he had at Virginia Tech...

9 - 14 Mar 2021: CSUN Assistive Technology Conference

Another virtual conference in the time of Covid! It was very much like the Closing the Gap presentation below but only 30 minutes in length so a lot of content had to be sacrificed. If you'd like a more in-depth discussion of the topic, watch the Closing the Gap 2020 presentation.

Here are my presentation notes.

28 Oct - 11 Nov 2020: Closing the Gap 2020 Virtual Conference

Closing the Gap went virtual in 2020 due to Covid-19. You can now watch my presentation for free and download a compilation of the slides with notes.

15 Sep 2020: New Jersey Assistive Technology Summit

In the time of Covid-19 the New Jersey Assistive Technology Summit was held virtually using Zoom. I had my slides in slideshow mode and ready to go, webcam and microphone selected and tested. My PowerPoint slides were "shared" and I dutifully told Zoom that I wanted to share audio for my embedded recordings... Then with one minute to go before the start of the presentation, my internet died! Thankfully, the cable modem started rebooting immediately and I was able to reconnect to the conference 5 minutes later. It took another 5 minutes before my heart to return to my chest...

Send me an email message (ken@volksswitch.org) for a copy of the slides. You can watch the recordings for other NJATS presentations by going here.

30 Jan 2020: The Assistive Technology Industry Association Conference in Orlando, FL

Volksswitch.org again presented a session promoting 3D-printed keyguards as THE pathway to 3D-Printed assistive technology. It was wonderful to present to approximately 70 attendees. As a reward for their attendance and to encourage them to explore 3D-printed keyguard designs on their own, each attendee was given an Easy Measurement Tool. You can download a copy of the presentation by clicking here. As stated on the last of the wrap-up slides, if you have any questions or suggestions, please contact us via our Contact Us form and we promise to get back to you.

15 Nov 2019: The Assistive Technology Conference of New England in Warwick, RI

Volksswitch.org presented a session promoting 3D-printed keyguards as the best path to 3D-printed assistive technology. At its core, our proposition is that each 3D-printed keyguard that you print will save you enough over the cost of a commercial keyguard that the cost savings accrued by 5 to 10 3D-printed keyguards will justify the purchase of a 3D printer.

Click here to download a copy of the slide deck.

30 Nov 2018 : The Assistive Technology Conference of New England in Warwick, RI.

Volksswitch.org hosted a poster session titled: "The Special Synergy of 3D Printing and Assistive Technology". In essence, assistive technology devices have always been expensive, functionally conservative, and aesthetically bland. This is the unavoidable result of the selection of traditional mass production manufacturing methods by companies trying to serve a market that is small in size and incredibly diverse in its needs. The hallmarks of mass production are: huge set-up costs and small per-item costs. Any changes in design require significant investment, up front, that have to be cost justified. The market for assistive technology is small and it has no "sweet-spot" - every individual with a disability is an amalgam of unique needs and desires. AT users are required to accommodate their device rather than the other way around. 3D printing promises to turn this story on its head. 3D printing has little or no setup cost and each item produced can be entirely unique. Best of all, high-quality 3D printers are very affordable and the material used to make functional products is almost free. 3D printing can put highly customized and personalized assistive devices in the hands of individuals at almost no cost.

Click here to download a document containing the highlights of the session.

Also, the folks at TechACCESS of Rhode Island created this video of one of our keyguard designs being 3D printed:

Today's #3DPrinting project with our @Prusa3D and a file from @thingiverse. 4 hours condensed into 34 seconds. See this machine in action at #ATCNE with Ken Hackbarth at his poster session. https://t.co/CnuE1KRgjI #AssistiveTech pic.twitter.com/Ak6M10ZdMq
- TechACCESS of RI (@TechACCESSRI) September 18, 2018

Finally, here's a close-up of the table and some of the 3D printed devices that we brought to the conference:

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11 April 2022: Assistive Technology Conference of New England 2021-2022 This special conference spans six months with two or three afternoon workshops held virtually each month. I provided a three-hour workshop titled: 3D-Printed Keyguards - from Soup to Nuts. Here's a recording of the workshop: And here's the PowerPoint slide deck with notes.

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a picture of Shannon Paige of the Texas Technology Access Program

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shannon.paige@austin.utexas.edu

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Brian Heiman-Reach out to Brian if you would like an AT sample kit mailed to you.

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Brian Heiman-Reach out to Brian if you would like an AT sample kit mailed to you.

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BHeiman@imagenet.com

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I needed a bottle for wood glue and I needed something cost effective. buying bottles specifically for decanting wood glue, wrecking the bottle with glue then tossing it and getting another didn't seem feasible to me. Hence my design of the coke bottle nozzle. Readily available, relatively cheap, and easily replaceable.

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USA (lower 48) topographic relief puzzle by DerSchweizermaker

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This is a 47 tile topographic puzzle of the lower 48 US states. The scale is 1:5'000'000 with a vertical exaggeration of 10. Rhode Island and Delaware unfortunately didn't get their own tile due to their small size. RI is mostly merged with CT (eastern most part fused to MA).

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Print In Place Fidget Cube by kyleashimself

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Feb14, 2022: Although it is listed as having support built-in, it does still need support (tree support @ 50degrees) everywhere else, the switch just does not like to cooperate with Cura's support system. Feb 10, 2022: added a version with no built-in support on the switch so people can experiment with orientation and I have the latest version on the printer now for quality control.

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Simple Toothpaste Squeezer by ChatterComa

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There are lots of Thingiverse objects to help with the problem of getting all the toothpaste out of a tube. This design is simpler than anything I have seen. It should print easily on any printer, cleans up readily, and works simply and well. The design is clean and unobtrusive.

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This is about version 7 of the no spill cup carrier I have been working on for a while. I designed it to carry large glasses and cups. The carry handle was added once I realised printing in on its side would save material and it fits really well.

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Silence tactile book (English text) by jenniferml

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Silence, a book to be read with the senses Silence is a collection of poems by way of micro-stories that relate feelings and sensory experiences, in many synesthetic occasions. It is independent sentences, but also as a whole short story.

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Tactile Goodnight Moon by TactilePictureBooks

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This is our first tactile book, “Goodnight Moon” for children with visual impairments. For more information, please visit our website: http://tactilepicturebooks.org
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