Dr. D-Flo
DIY Syringe Pump (Food 3D Printer - Part 1)
updated
OrangeStorm Giga: elegoo.com/pages/elegoo-orangestorm-giga
IC3D's 10 kg PETG: ic3dprinters.com/shop/recycled-petg
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
π D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
Dive into Dr. D-Floβs review of the Elegoo OrangeStorm Giga, which is not just another 3D printer, but a leviathan in the world of hobbyist 3D printing. With a jaw-dropping build volume of 800 x 800 x 1000 mm, this printer is changing the game, allowing you to bring to life projects that were once too big for hobbyist printers.
In this video, D-Flo will walk you through the unboxing, assembly, and all the nitty-gritty details of what makes the OrangeStorm Giga stand out. This includes reviewing the speed, accuracy, and a build volume that's 50x that of a desktop printer, all while using the standard 1.75 mm filament. This giant works with the filament you've already got.
But it's not just about size; it's about the quality and the versatility this printer brings to the table, enabling you to scale up any design from the internet effortlessly. Plus, it has a surprisingly affordable price tag (~$2500).
Table of Contents:
00:00β - Introduction
01:16β - Unboxing
02:57β - Frame Assembly
03:59β - Z Actuators
04:40β - Belt-Driven Gantry
05:53β - Extruder
08:11β - Filament
09:35β - Display and Firmware
10:36β - Leveling Build Plates
14:04β - Speed
15:35β - Articulating Dragon Print
18:18β - 10kg Spool Holder
18:58β - Tall Turbine Blade Print
22:11β - Airless Basketball Print
23:00 - Conclusions
#largeformat #3dprinting #techreview
Files, Parts, and Info: drdflo.com/LF3DP.html
Large Format Printer Playlist: youtube.com/playlist?list=PLZ9ac-f1U5V-FCBdhjv56bcvn9yc6JSfY
D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
New MDPE10 Extruder: massivedimension.com/products/mdpe10-massive-dimension-direct-print-particle-extruder
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Having printed with hundreds of kilograms of pellets, I've experienced both the incredible potential and the limitations of my DIY Large Format 3D Printer. Further, the acquisition of a new pellet extruder, with a volumetric flow rate five times greater than its predecessor, necessitated immediate upgrades to essential parts of my printing process, including the actuators for improved speed and reliability.
In this video, I detail the process of designing and machining custom carriages to integrate rack and pinion linear motion systems for the X and Y axes (speed!) and ball screw actuators for the Z axis (reliable). I also discuss the workings of the rack and pinion system, its components, and share insights on optimizing this type of linear motion setup for peak performance
Table of Contents:
00:00β - Introduction
00:56β - Relocating Printer
02:00β - Print Speed
06:56 - Z-Axis Ball Screws
13:49 - Ball Screw Actuator Assembly
15:08 - Upgrading the Gantry
16:32 - Rack and Pinion (R&P)
17:09 - R&P Components
21:14 - R&P Tensioning
23:48 - Mounting Gear Racks
24:50 - R&P Testing
28:54 - R&P Actuators Assembly
37:46 - Floating Printhead
40:53 - Machining Carriage Plate
#3DPrinting #LargeFormatPrinting #rackandpinion
More Extrusion Info: https://www.DrDFlo.com/Extrusion.html
Filabot Recycling Lineup: filabot.com/products/recycling-setup-filabot-reclaimer-and-filabot-pelletizer
Shredii: actionbox.ca/products/shredii-5
D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Description: Welcome to Part 2 of Dr. D-Floβs plastic extrusion series. If you havenβt already, be sure to check out Part 1 (youtu.be/cIh0n2zOCfM), where a variety of NEW materials are extruded into 3D printer filament. In this video, we will recycle unwanted 3D prints and plastic items found around the house into filament.
The first step in this process is to grind up old parts and empty containers with a shredder/granulator. You'll discover that ground-up plastic isn't the same as new pellets; it's lighter and requires some extra processing before it can be melting and drawn out as a constant diameter fiber. These extra steps include a 3 mm extrusion followed by pelletizing. Ultimately, we end up with a 100% recycled feedstock that can be used for producing 3D printer filament or in any thermoplastic processing equipment (e.g., injection molding).
#recycling #filament #3dprinting
Table of Contents:
00:00 - Intro
01:29 - Recycling 3D Prints
01:58 - Shredding (Reclaimer)
07:55 - Extruding regrind
14:38 - Pelletizing
17:40 - Degradation
20:10 - Re-Extruding
21:15 - Economics
24:00 - Recycling Commodity Plastics
27:10 - Pultrusion
29:00 - Shredding PET Bottles
30:35 - PET Extrusion Challenges
35:15 - Extruding PET Flakes
More Plasma Info: drdflo.com/Plasma.html
DIY Vacuum Lifter Plans: drdflo.com/Vacuum-Lifter.html
D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Video Description:
Welcome to Dr. D-Floβs mega guide on how to setup, operate, and perfect cuts on a CNC plasma cutter. This video covers everything from the basic principles of plasma generation all the way to programming the toolpaths that control the position and speed of the torch. Perhaps, the most important topic is optimizing both cut speed and quality to produce parts quickly without having to spend time on the backend grinding off excess dross. Unfortunately, there is not a universal setting as the performance of the plasma cutter changes as the consumables (electrode and nozzle) wear. This video will show you have to read the clues (i.e., lag lines) hidden in the edge to tune the speed, height, and amperage of the cut.
If you are new to plasma cutting, then you might not be aware of some of the challenges associated with fabricating parts from large sheets of metal, namely the material handling aspect. In this guide within a guide, learn why a vacuum lifter is the best method for handling thin and thick sheet metal and how to build one. This is just one of several projects featured at the end of the video.
#PlasmaCutting #MasterClass #Fabrication
Table of Contents:
00:00:00 β Introduction
00:01:02 β Workflow
00:06:07 β What is Plasma?
00:11:00 β Power Supply
00:17:51 β Torch Design
00:18:33 β Arc Ignition
00:20:22 β Pilot Arc
00:24:05 β Consumables
00:24:13 β Shield
00:24:53 β Nozzle
00:29:17 β Electrode
00:31:38 β Swirl Ring
00:34:32 β Retaining Cap
00:35:20 β SmartSYNC Cartridge
00:37:09 β FineCut Consumables
00:38:00 β Plasma Gas
00:47:42 β Plasma Shape
00:49:00 β Initial Height Sensing (IHC)
00:52:50 β Torch Height Control (THC)
00:55:17 β Plasma Cutting Sequence
00:57:28 β Minimizing Dross (Speed)
01:01:56 β CNC Table Design
01:07:57 β Material Handling
01:11:28 β Cutting Aluminum
01:14:06 β CAM/Toolpaths
01:26:12 β Nesting
01:31:32 β Vacuum Lifter
01:36:55 β Signage
01:37:38 β Fire Pit
Build Guide: drdflo.com/Vacuum-Lifter.html
More info: https://www.DrDFlo.com/Extrusion.html
D-Floβs Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Equipment:
EX6 Extruder: filabot.com/products/filabot-ex6-filament-extruder
Spooler: filabot.com/products/filabot-spooler
Airpath: filabot.com/products/filabot-airpath
Filameasure: filabot.com/products/filameasure-inline-filament-measurement
Description:
How to make 3D printer filament. This video dives into the fundamentals and technology behind plastic extrusion for 3D printer filament. The workhorse behind this process is the screw extruder, which feeds small plastic pellets into a barrel, where a screw conveys and melts the material. A tight fit between the barrel and screw allows for pressure to build as the plastic melts. This pressure provides the driving force to push the molten resin out of the die (or nozzle) that has a 1.75 mm opening. Of course, this 1.75 mm is the desired filament diameter for most 3D printers, and the melted plastic has no choice but to conform to this profile. The process does not end here as the newly formed filament has to be cooled, measured, and spooled, with each subsequent step requiring its own instrument to carry out.
Each plastic behaves differently during the extrusion process, which provides the opportunity to discuss the molecular structure of polymers (semi-crystalline and amorphous materials). This discussion is not only important in creating the filament but also when printing it. Learn how percent crystallinity affects the tendency of material to warp and their opacity. This video features the extrusion of many different materials, including PLA, ABS, PETG, and HIPS. Also, composite materials, such as carbon fibered reinforced ABS, are also extruded as filament.
Please note: The equipment seen in this video was provided by Filabot, but Dr. D-Flo was not compensated for this video. Dr. D-Flo thoroughly tested all equipment for 1 year prior to making this video.
#Filament #Extrusion #3DPrinting
Table of Contents:
00:00 β Introduction
01:17 β Extruding PLA Filament
09:58 β Die/Nozzle
11:45 β Screw Design
16:47 β Inside the Extruder
18:15 β Barrel Heaters
21:04 β Economics of Filament Extrusion
25:04 β Thermoplastics Structure
27:04 β Purging and Cleaning
27:58 β Extruding ABS Filament
28:58 β Extruding Carbon Fiber ABS Filament
30:02 β Extruding PETG Filament
33:20 β Extruding HIPS Filament
BOM and Info: drdflo.com/CNC-Mill.html
D-Floβs Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
This project started with a relatively simple goal: enclose my DIY CNC mill to prevent metal shavings from flying all over my garage. However, I decided that if I was going to build an enclosure then it must support flood coolant for improved surface finish of machined parts and increased tool life. Of course, this requirement led me down a rabbit hole as I designed, plasma cut, welded, machined, and even large format 3D printed components for a project that quickly grew in complexity. The complete build took about 5 months of weekends, but all this work resulted in what I believe to be one of my most entertaining videos to date. Further, improvements in quality of life (no more spending hours cleaning up after milling) and surface finish of parts has made this investment of time and money worth it. So worth it that I thought everyone should have access to my design to build their own enclosure. Find my free parametric model on my website: drdflo.com/CNC-Mill.html
This video also features several upgrades to my mill, including double nut ball screws, variable lubrication system, and new spindle bearings.
Table of Contents:
00:00 β Introduction
00:48 β CAD Model
02:24 β Fabricating Enclosure
15:30 β Epoxy Paint
18:33 β Moving Enclosure
18:53 β Stripping Down Mill
21:19 β Double Nut Ball Screws
24:40 β Replacing Spindle Bearings
29:28 β Variable Lubrication System
30:05 β Enclosure Assembly
33:38 β Flood Coolant
38:12 β 3D Printing Chip Drawer
42:50 β Milling a part!
Files, Parts, and Info: drdflo.com/LF3DP.html
Large Format Printer Playlist: youtube.com/playlist?list=PLZ9ac-f1U5V-FCBdhjv56bcvn9yc6JSfY
D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Part 5 is packed with serious upgrades and creative 3D prints. The build volume is enclosed with plasma cut sheet metal, CNC milled components, and topped with a massive ABS hat β 3D printed of course! Inevitably there were some issues and expensive mishaps as Dr. D-Flo attempted to print with ABS pellets, a material notorious for warping. But active chamber heating, a new pellet vibrator upgrade, closed-loop stepper motors, and CAN expansion boards vastly increased the reliability of this printer.
Table of Contents:
00:00 β Introduction
01:56 β Battery Backup
02:32 β Motor Brakes
04:02 β Motor Encoders
05:72 β Installing Motors
06:31 β CAN Expansion Boards
11:59 β Closed-Loop Tuning
14:11 β GD Print 1
15:45 β Vibrator
20:22 β GD Print 2
24:23 β Enclosure
30:58 β Hat
#massive #additivemanufacturing #3dprinting
Files, Parts, and Info: drdflo.com/LF3DP.html
Large Format Printer Playlist: youtube.com/playlist?list=PLZ9ac-f1U5V-FCBdhjv56bcvn9yc6JSfY
D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Resources:
Venturi Effect: makezine.com/projects/giovanni-venturi-venturi-effect
Video Description:
Part 4 of the Large Format 3D Printer series dives into printing large complex geometries. From a 18 kg (40 lbs) chair to a step stool with gyroid infill, Dr. D-Flo explores the capabilities of his pellet extruder and massive 4β x 4β x 4' build volume. However, these large prints come at a cost, and the amount of material ($$$) and power ($) per print are evaluated in this video.
To keep the hungry extruder fed with pellets, a Venturi vacuum-based pellet conveyance unit is installed to "blow" pellets from a bin to the extruder when needed. This system has worked flawlessly for over 100 hours, but there was one catastrophic failure that had to be overcome (stay tuned until the end to see this blooper).
This video also touches on the mechanical recycling of failed prints, but a future video will go into much more detail on turning plastics destined for the landfill into pellets for the large format printer 3D printer.
Table of Contents:
00:00 β Introduction
00:26 β Tying Up Loose Ends
04:28 β Pellet Conveyance
05:26 β Venturi Vacuum
07:20 β Compressed Air Supply
10:32 β Installing Conveyance Unit
13:23 β Printing a Chair
16:05 β Operating Costs
19:32 β Step Stool
21:37 β Infill
23:31 β Recycling Prints
24:48 β Blooper
#Massive #DIY #3DPrinter
Files, Parts, and Info: drdflo.com/LF3DP.html
OpenBuilds CNC Machines: openbuildspartstore.com/?ref=S0VIA3Hz629M
Large Format Printer Playlist: youtube.com/playlist?list=PLZ9ac-f1U5V-FCBdhjv56bcvn9yc6JSfY
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Part 3 of the Large Format 3D Printer series covers everything on the electronics side of the project. From building a professional electrical cabinet to configuring the quad gantry leveling, this video covers the circuits required to not only power this massive machine but also create a reliable printing experience.
When dealing with a 4β x 4β (1220 mm x 1220 mm) build area, the levelness of the build plate is critical for successful printing. Dr. D-Flo throws the kitchen sink at this bed leveling problem by using manual, mesh, and gantry leveling. After compensation, Dr. D-Flo was able to achieve a levelness within 0.250 mm, which is more than workable when printing with at least a 1 mm layer height.
Because the bed leveling went so smoothly, Dr. D-Flo was able to fire up a test print. While many settings need to be tweaked, you can see the potential of the large format printer. Subscribe to see more prints in Part 4!
Table of Contents:
00:00 β Introduction
00:25 β Z-Axis Limit Switches
01:56 β Print Head Connections
03:36 β Electrical Cabinet
12:47 β Panel Connectors
17:03 β Auto-Squaring (Homing)
18:14 β Bed Heater
19:52 β Leveling Build Plate
23:02 β Glass Bed
24:56 β Probe
28:11 β Part Cooling
31:09 β Printing
34:11 β Machined Components
#Massive #DIY #3DPrinter
Files, Parts, and Info: drdflo.com/LF3DP.html
Large Format Printer Playlist: youtube.com/playlist?list=PLZ9ac-f1U5V-FCBdhjv56bcvn9yc6JSfY
D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Welcome to Part 2 of Dr. D-Floβs Large Format 3D Printer! This printer has an industrial build envelope of 4βx4βx4β (1220mm x 1220mm x 1220mm). A typical filament extruder is not capable of pumping enough plastic to cover this massive build volume. Therefore, Massive Dimensionβs MDPH2 pellet extruder, which is capable of depositing 1 kg of molten plastic an hour, will be used to generate the layers for some massive objects. However, the MDPH2 weighs nearly 18lbs (~8.5kg), which requires a serious linear motion platform to move around.
Dr. D-Flo constructed 7 of OpenBuilds' C-beam linear actuators to create a rigid and repeatable cartesian system that uses 4 actuators for the Z-axis, 2 for the Y-axis, and 1 for the X-axis. With a couple modifications shown in this video, these actuators that are upgraded for high temperature operation. This video covers the assembly of these linear actuators and their installation into the frame built in part I of this series. By the end of this video, it will be possible to position the MDPH2 at any position in the build envelope.
Subscribe for Part 3!
Table of Contents:
00:00 β Introduction
01:25 β Critical Speed
05:23 β High-Temperature Actuator Design
09:15 β Carriage Assembly
11:23 β Actuator Assembly
13:18 β Quad Gantry Leveling (QGL) Design
17:09 β Machining X-Y Joint
19:25 β Wiring
21:15 β Plasma Cutting Panels
24:20 β Bed Heater Tease
24:20 β Bed Heater Tease
25:55 β Linear Motion Testing
#Massive #DIY #3DPrinter
Files, Parts, and Info: drdflo.com/LF3DP.html
Large Format Printer Playlist: youtube.com/playlist?list=PLZ9ac-f1U5V-FCBdhjv56bcvn9yc6JSfY
D-Flo's Amazon Store: amazon.com/shop/dr.d-flo
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Dr. D-Flo is taking his shopβs additive manufacturing capabilities to the next level by building an industrial scale 3D printer with a build envelope of 4βx4βx4β (1220mm x 1220mm x 1220mm). When DIYing a printer this large, a normal filament extruder will not be able to pump out enough plastic to fill this build volume. Therefore, Massive Dimensionβs MDPH2 pellet extruder capable of depositing 1 kg of molten plastic an hour will be used to generate the layers for some massive objects. Dr. D-Flo talks about the benefits and limitations of using pellets as a feedstock and even explores how to add colorants to the plastic pellets to achieve color extrusions.
The MDPH2 weighs almost 20lbs (9kg) and to be able to move this beast precisely within a 4x4β work area will require a rigid and powerful linear motion setup. For this reason, Dr. D-Flo opted for OpenBuildβs C-Beam Tension XL Linear Actuators, which he has configured into a motion platform where the extruder is moved in all 3 dimensions (stationary bed design).
Watch Dr. D-Flo plasma cut and mill custom pieces to bring this large format 3D printer to Life.
Table of Contents:
00:00 β Introduction
00:33 β Pellet Extruder
03:30 β Duet 3 Microcontroller
04:43 β Extruding Pellets
09:17 β Switching Temperature Probes
11:57 β Linear Motion
16:36 β Frame
17:47 β Build Plate
22:07 β Bed Leveling System
#Massive #DIY #3DPrinter
3D Models & Supplies: thangs.com/designer/DrDflo
BCN3D Epsilon (Paid Link): matterhackers.com/store/l/bcn3d-epsilon-3d-printer-and-smart-cabinet-bundle?aff=7480
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Video Description:
Here is a look at some of my most useful 3D prints! These are models that I use when DIYing or just carrying on with my everyday life. While the title implies that there are only 5 models, this is an underestimate. Between all the stylistic variations and bonus models this video is a wealth of original content. Here is a list of the models:
- Solder Helper
- iPhone 13 Cinematic Case
- Lattice Lamp Shades
- On-the-Go Bolt Organizer (and other Garage organizers)
- Engineerβs Desk Organizer
Follow me on Instagram to get a sneak peek of future 3D models:
instagram.com/dr.dflo
Table of Contents:
00:00 β Introduction
00:47 β Solder Helper
04:32 β iPhone Case
06:51 β Cinematic iPhone Case
09:50 β Lattice Shades
11:30 β Modular Bolt Organizer
13:02 β Mill Tool Holder
13:35 β Pegboard Accessories
14:16 β Engineer's Desk Organizer
80 gal Craftsman Compressor: amzn.to/46PmFW4
HTP Air Dryer: usaweld.com/products/htp-america-max-dry-max-dry-xxl?ref=2GQTMyr78DDW8
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Resources:
Fusion 360 Post Processor for ShopSabre Plasma Tables: dflo.info/Post-Processor
How to build a Plasma Table:
youtube.com/watch?v=mbo6soXn_kQ
Plasma Cutter Buyers Guide:
drdflo.com/pages/Guides/Plasma-Cutters-For-CNC.html
Nearly all the CNC machines in my garage were built from the ground up or were previously manual instruments. However, there are some machines that are just too large to build at home. A 4β x 8β CNC plasma table is great example of this. Having a cutting capacity of 4β x 8β not only allows you to make massive parts, but a table of this size can cut sheet metal that comes right off the roll, which is cheaper to purchase. Cutting large pieces of metal overtop a water table requires a very rigid frame. Needless to say, large plasma tables are better to purchase than build.
In this video, you will get to see the delivery of a ShopSabre SideKick 8 to my new shop. This is a premium table, with a massive frame and thick linear rails. The gantryβs motion is powered by servo motors that drive a circular gear along a linear track (i.e., rack and pinion). This linear motion setup is very quick (1000 ipm travels) and resilient to dust and debris. Watch as this table moves a powermax85 torch as it effortlessly slices through 3/16β steel.
I am very excited to use this tackle large projects that I have imagined for years. I will also be generating educational content on how to program and optimize plasma cutting operations.
Table of Contents:
00:00 β Introduction
01:13 β Frame and Linear Motion
05:47 β Torch and Mount
07:00 β Water Table
08:40 β Powermax85
10:13 β Controlling the Table
12:07 β Plasma Cutting
15:18 β Considerations
#Massive #CNC #Plasma
End Mills / Cutters used:
6 mm End Mill: mcmaster.com/8940A33
2 mm End Mill: mcmaster.com/8940A23
1 mm End Mill: mcmaster.com/8940A21
0.25β Ball Mill: mcmaster.com/8878A63
0.25β Mill/Drill: mcmaster.com/2770A65
2β TTS Shear-Hog: tormach.com/tts-shear-hog-2in-35609.html
In this video, Dr. D-Flo marries the love of his life! But before that can happen, he needs gifts for his groomsmen. As a DIYer / Maker, it would have been frowned upon for Dr. D-Flo to purchase cookie-cutter products for some of his closest friends and family members. Wanting to make something practical, Dr. D-Flo landed on the idea of a CNC machined bottle opener personalized for each groomsman.
At first glance, this hefty bottle opener appears to have a relatively simple geometry, but tapers and chamfers that change thicknesses require 3D toolpaths to properly machine. This video differentiates between 2D and 3D toolpaths and discusses when to use 3D toolpaths, like scallops and parallels.
To machine the backside of the bottle opener, Dr. D-Flo used soft jaws that were cut to match the contour of bottle opener. This provided repeatable workholding that allowed for the backside operations to match up perfectly with the front of the bottle opener.
The video wraps up with some footage from the big wedding day!
Table of Contents:
00:00 β Introduction
01:32 β CAM
03:19 β 2D/3D Milling with Square End Mill
06:30 β 3D Milling with Ball End Mill
08:49 β Finish Front Milling
09:21β Soft Jaws
12:10 β Wedding Day
#Wedding #CNC #Mill
Voron 2.4: vorondesign.com/voron2.4
Dr. D-Flo's Web 3D Printer Guide: dflo.info/3D-Printer-Building
Mods:
Find mods for Voron: faked.org/voronmods
Klicky: github.com/VoronDesign/VoronUsers/tree/master/printer_mods/JosAr/Klicky-Probe
After Burner Mod: github.com/VoronDesign/VoronUsers/tree/master/printer_mods/Badnoob/AB-BN
Paneldue 5i & 7i Cases: thingiverse.com/thing:2799628
Supplies & Equipment:
Common tools and supplies: dflo.info/Amazon
Resources:
How to Build a 3D Printer: youtu.be/qub5chyIQ0s
About CoreXY: corexy.com
Removing Twist: dflo.info/twist
π· Follow Dr. D-Flo on the Gram: http://instagram.com/dr.dflo
Description:
CoreXY 3D printers, like Voron 2, are some of the most challenging 3D printers to build. But once successfully assembled, this type of 3D printer is incredibly fast. In some cases, a coreXY 3D printer can print twice or even three times as fast as a normal cartesian printer (e.g., Ender 3 and Prusa i3). The secret behind this printerβs speed is a unique timing belt path that relocates both the X and Y motors off the print head. Consequently, the print head is extremely light, allowing it to change directions rapidly.
In this video, Dr. D-Flo will cover the fundamentals of coreXY kinematics, while building Voron 2.4. This printer is as epic as it sounds. Voron 2 has a flying gantry, which is hoisted in the air by 4 timing belts that are independently driven. This unique Z-axis setup allows the printer to move the corners of its gantry up and down until it is perfectly level with the build plate. This process is known as 4-point leveling or Quad Gantry Leveling (QGL) and takes all the manual work out of bed leveling.
In addition to its sophisticated features like QGL, Voron 2 rocks a sleek design that includes a full enclosure with exhaust fan. This allows Voron 2 to print ABS with ease. But the best part about the Voron-class of printers is that each design, including Voron 2, comes with a manual and full CAD model. These resources greatly facilitate the DIY process, and this video will fill in any small gaps and missing information from those docs.
Finally, Dr. D-Flo will expand the capability of his Voron 2 by installing the AB-BN afterburner (i.e., a larger blower fan assembly for increased part cooling) and Klicky β a magnetic microswitch that functions as a probe that can be docked when not in use.
#coreXY #FFF #Voron
Table of Contents:
00:00 β Introduction
01:44 β About Voron Design
02:46 β Hardware & 3D Printed Parts
08:32 β Frame
12:02 β Linear Rails
16:30 β Z-Axis Drives
22:40 β Heated Build Plate
24:00 β Flying Gantry
33:53 β CoreXY Kinematics
36:48 β Prove (Klicky)
42:22 β Extrusion Drive
45:07 β Afterburner (AB-BN)
48:45 β Print Head
49:27 β Wiring
58:00 β Electronics
1:06:23 β Quad Gantry Leveling (QGL)
1:09:30 β Enclosure
1:12:36 β Printing
Sintratec S2 SLS Printer: dflo.info/Sintratec
Dr. D-Flo has an off-the-shelf part without any CAD data that needs to be machined on his CNC mill. The curvature of the part prevents typical fixturing with a vise, so David seeks the help of the 3D scanning and printing specialists at 3DChimera in Miami, Florida. CEO Alex Hussain and Application Engineer Julian Cecil walk David through how to take a physical part and create a watertight digital model through 3D scanning and reverse engineering. With a CAD model in hand, a digital soft jaw was created by subtracting the outside profile of the part with a Kurt jaw. This model was converted to a mesh and printed out of a carbon fiber composite filament on a FFF printer, which resulted in a stiff geometry that could firmly grip the outside of the part for machining. While the resulting soft jaw was a great solution for Davidβs workholding problem, Alex and Julian demonstrate an alternative pathway to creating the part with the desired feature on Sintratecβs Industrial SLS Printer, the S2. Julian explains the benefits of powder bed fusion compared to traditional filament-based printers and how the S2 is uniquely positioned for batch prints. After the print finishes, Alex provides insight into the post-processing of SLS parts with dyes and polishing. The finished SLS parts were spectacular. There were no layer lines or artifacts commonly left behind from additive processes. This trip was an awesome window into how additive manufacturing is both complimenting and competing with subtractive manufacturing techniques.
#3DPrinting #SLS #3DChimera
Table of Contents:
00:00β - Introduction
04:36 - 3D Scanning
09:05 - Reconstructing CAD Data
11:23 - Carbon Fiber FFF Printing
16:10 - Industrial FFF Printers
26:04 - Soft Jaw Test Fit
27:14 - SLS Printing (Sintratec S2)
34:17 - SLS Post Processing
41:18 - CNC Milling w/ Soft Jaws
Dr. D-Floβs Instagram: dflo.info/insta
Dr. D-Flo's Thangs: dflo.info/Thangs
Links below may provide a small commission to support more CNC router content!
Equipment:
CNC Router: dflo.info/CNC-Router
Touch Interface: dflo.info/Interface
Probe: dflo.info/Probe
Table: dflo.info/Table
Enclosure: dflo.info/Enclosure
Tooling:
1/4" Sq. Down-Cut 2 Flute: dflo.info/Endmill1
1/4β Sq. Up-Cut 1 Flute: dflo.info/Endmill2
1/4" Ball Nose 2 Flute: dflo.info/Endmill3
1/8β Straight 2 Flute: dflo.info/Endmill4
1/16β Sq. Up-Cut 2 Flute: dflo.info/Endmill5
1/16β Sq. Up-Cut 1 Flute: dflo.info/Endmill6
Roundover Bit: dflo.info/Roundover
Flush Trim Bit: dflo.info/FlushBit
Workholding:
Painterβs Tape: dflo.info/PaintersTape
Super Glue + Activator: dflo.info/SuperGlue
Bessey Clamps: dflo.info/Clamps
Wood Glue: dflo.info/Wood-Glue
Glue Roller and Tray: dflo.info/Roller
Toe Clamp: dflo.info/Toe-Clamp
Finishing:
Orbital Sandpaper: dflo.info/Sanding
Sandpaper Sheets: dflo.info/SandSheets
Old Masterβs Vanish: dflo.info/Varnish
Cutting Board:
Inlay Maple (6x12x1/16β): dflo.info/Maple
Citrus Finish (Oil + wax): dflo.info/CitrusFinish
Lavender Finish (Oil + wax): dflo.info/LavendarFinish
Table:
Table Legs: dflo.info/TableLegs
Trivet:
White Corian (8x12x1/2β): dflo.info/WhiteCorian
Walnut (6x12x1/2β) : dflo.info/Walnut
Silicone Adhesive: dflo.info/Silicone
Self-Adhesive Cork: dflo.info/Cork
Cookbook Stand:
Wireless Charging Unit: dflo.info/WirelessCharger
Maple (6x12x0.5β): dflo.info/Maple1
Black Corian (8x12x1/2β): dflo.info/BlackCorian
Inlay Maple (6x12x1/16β): dflo.info/Maple
Elastic Superglue: dflo.info/Med-Flex
Minimalistic Wallet:
Wallet Design from Etsy: dflo.info/wallet
Elastic Band: dflo.info/Elastic
1/8β Aluminum Plate: dflo.info/Al6061
Machinable Plate: dflo.info/Plate1
LED Sign:
Addressable LEDs: dflo.info/LED
Translucent Acrylic (12x24x1/8β): dflo.info/T-Acrylic
Sandable Primer: dflo.info/SandPrimer
Black Spray Paint: dflo.info/BlackPaint
Arduino Feather: dflo.info/Ard-Feather
Description: Out of all the different CNC machines that can be operated out of a garage, computer-controlled routers are arguably the most versatile. Capable of cutting not only wood but also plastics and non-ferrous metals, the CNC router can quickly turn a variety of materials into products that can be sold or gifted. Furniture and decorations are perhaps the most common creations that new hobbyists gravitate towards, but CNC routers are capable of so much more from cutting traces on a circuit boards to even engraving/cutting aluminum.
The best part about the CNC router is how low the barrier of entry is. The machine itself is light and only requires a common household voltage operate. The allowance for error are high because hobbyist grade machines, like the Lead 1010, are built to survive crashes as you learn the ins and outs of CNC programming.
If youβre not convinced that you need a CNC router in your home shop now then you will be after Dr. D-Flo covers his five favorite products to make in this video.
#DIY #CNC #Router
Table of Contents:
00:00β - Introduction
01:31 - Cutting Board
13:50 - Table w/ Inlay
14:38 - Trivets
22:03 - Polka Dot Trivet
23:03 - Cook Book Stand
30:11 - Wallet
35:50 - LED Sign
Dr. D-Flo's Instagram: instagram.com/dr.dflo
D-Floβs Amazon Store: amazon.com/shop/dr.d-flo
Past Upgrade videos:
CNC Mill Upgrade 2: youtu.be/6KaNF0IshBI
CNC Mill Upgrade 1: youtu.be/bPM9XwzF2LY
CNC Mill Conversion Video: youtu.be/qDr81TccvMY
Products:
Marathon Y551 Motor: geni.us/Marathon-Y551
DURApulse GS20 Drive: geni.us/DURApulse-GS20
Koyo TRD-S2000VD Encoder: geni.us/Koyo
Through-Hole Straight Taps: geni.us/Chip-Clearing-Tap
Blind-Hole Spiral Taps: geni.us/Spiral-Tap
Taper Lock Pulley: geni.us/HTD-Pulley
1610 Bushing for 7/8" Shaft: geni.us/Bushing875
1610 Bushing for 40mm Shaft: geni.us/Bushing-40mm
Common tools and supplies: dflo.info/Amazon
Sponsor: Shop AutomationDirect for all your CNC needs: automationdirect.com
Description:
Synchronous feed tapping, also known as rigid tapping, is a computer controlled tapping process that can seamlessly and rapidly add threads to holes. During the rigid tapping process the feed rate of the Z-axis is tied to the rotation of the spindle, such that the tap advances its pitch every rotation of the spindle. To enable rigid tapping on a milling machine, the millβs controller has to be able to precisely measure and control the spindle speed at low RPMs. These two requirements can be satisfied by using an encoder to track the angular velocity of the spindle and a vector Variable Frequency Drive (VFD), which can change the frequency of power supplied to the motor to modulate its speed.
However, a problem arises when general purpose AC motors, like the one that comes stock on the PM-833TV, are run at low speeds due to inefficient cooling. These types of motors have a fan attached to the backside of the shaft and low speeds result in less airflow. To circumvent this problem, an inverter duty motor (sometimes called a vector motor) should be used instead for low RPM applications like rigid tapping. Inverter duty motors are built out of cast iron (more conductive to heat) and are rated for higher temperature applications. They do not have a shaft mounted fan and can operate at any RPM from 0 to their base speed.
In this video, Dr. D-Flo installs a Marathon Black MAX Inverter duty motor, a DURApulse GS20 series VFD, and a Koyo encoder to his PM-833TV CNC converted mill to achieve rigid tapping in his garage. This video covers this entire upgrade from making a new motor mount for the beefy Y551 motor all the way up to programming a VFD.
Table of Contents:
00:00β - Introduction
01:11 - Tapping and Threads
03:03 - Tension Compression Tapping
03:25 - Thread Milling
04:25 - General Duty Motor
05:36 - Marathon Inverter Motor
07:52 - Motor Mounting Plate
13:07 - Taper Lock Pulleys
16:40 - DIY or Buy? CNC Mill
17:50 - Belting
19:15 - Installing Inverter Motor
21:47 - Accuracy of Stock VFD
23:22 - AC Motor Control
27:43 - Selecting a VFD
29:59 - Installing New VFD
35:28 - Testing VFD
37:54 - Spindle Encoder
41:21 - Rigid Tapping Testing (Wax)
46:46 - Types of Taps
47:21 - Rigid Tapping Testing (Metal)
#CNC #Tapping #Milling
Instagram: instagram.com/dr.dflo
Sintratec Kit (USA): geni.us/Sintratec-USA
Sintratec Kit (EU): geni.us/Sintratec-EU
Common tools and supplies: dflo.info/Amazon
This is a one-of-a-kind video that walks through all of the components and theory that go into building a Selective Laser Sintering (SLS) 3D Printer. SLS is a much different 3D printing technology than filament- and resin-based 3D printers that have become increasingly common in the household. While not as popular among hobbyists due to cost, SLS printers are very prominent in the industry because they are capable of printing strong and durable parts out of nylon. SLS printers take powder as a raw material and fuse it together with a laser in a defined geometry. After one layer of powder is fused together another layer is swept over with a blade or roller. This powder handling system and optical setup is very unique to the SLS process and will be explained in detail in this video. The printer built in this video is the Sintratec kit, which as its names suggests comes in a DIY format where you have to assemble everything. This is the most affordable SLS printer that you can buy. Is it worth the $6k asking price? Watch the video to make your own judgement!
I am not affiliated with or sponsored by Sintratec.
Table of Contents:
00:00β - Introduction
00:48 - Unboxing Sintratec Kit
04:20 - Door
06:10β - Enclosure
08:08β - Core
11:12β - Powder Spreader
13:55β - Stages
15:41β - Heating Element
16:53 - Limit Switches
20:06β - Lamps
22:30β - Optics
26:47 - Hat
29:43 - Electronics
32:50 - Wiring the Mains
35:55 - Calibration
37:59 - Nylon
48:08 - Part Nesting
51:03 - Functional Print
53:35 - Post Processing
1:01:59 - Powder Recycle
1:11:42 - SLS vs FFF
1:13:31 - Cons of SLS
1:15:04 - Summary
#3D #Printing #Laser
Instagram: instagram.com/dr.dflo
OpenFuse: projectopenfuse.com
Selective Laser Sintering (SLS) is a subset of powder bed fusion-based 3D Printing. Itβs a fascinating technology that uses powder as a raw material instead of filament or resin. SLS 3D printers use plastic powders while other powder bed fusion printers use powders composed of metals or ceramics. The most common SLS material is nylon, specifically PA12. The nylon powder is loaded into the printer, where heating elements heat the powder just below its melting point and a roller or blade lays down a smooth layer on the build platform. A laser, which is typically controlled by galvanometers (motorized mirrors) is scanned across the build platform melting and fusing any powder in its path. A new layer of powder is spread across the sintered layer and the process repeats, slowly building the part in the Z direction. Powder from previous layers will support the growing print, so no support structures are needed! SLS printers are capable of high fidelity prints, and their speed is remarkable due to the rate at which the laser can be scanned across the platform. This is an overview video of this technology, which teaches the fundamentals of SLS printing through both animations and real-life SLS prints on the Sintratec Kit printer.
#3D-Printing #Laser-Sintering #Powder-Fusion
Dr. D-Flo's Instagram: instagram.com/dr.dflo
D-Floβs Amazon Store: amazon.com/shop/dr.d-flo
Supplies/Products:
Power Drawbar Kits: geni.us/Priest-Tools
Common tools and supplies: dflo.info/Amazon
Touch Plates and probe:
Manual (paid link): geni.us/Manual-Touch-Plate
Digital (paid link): geni.us/Digital-Touch-plate
ITTP Digital Probe: geni.us/ITTP-Probe
Tormach TTS Holders: geni.us/Tormach-TTS
Video Description:
This is the second installment in the Dr. D-Floβs CNC mill upgrade series. In this video, a power drawbar (i.e., pneumatic drawbar) is installed to automate the loading and unloading of tools. Dr. D-Flo explains how a powerful air cylinder and Belleville washers (also known as spring washers) work against each other to hold the tool tightly when cutting but freely release the end mill during a tool change. The power drawbar not only increases the speed of switching out end mills, drills and other tooling, but also provides a strong and constant holding force of 32 ft-lbs to ensure that the tool holder is properly seated and does not slip during the cutting operation.
Speaking of tool holding, Dr. D-Flo also explains the magic behind the Tormach Tool System (TTS) holders, which have allowed for mills with R8 spindles to be used as effective CNC machines. The TTS holders maintain the length of the cutting tools between operations, allowing for seamless transitions between tools.
At the end of the video, Dr. D-Flo demonstrates how to find the length of a digital probe and cutting tools through both analog and digital touch plates.
Table of Contents:
00:00 - Introduction
03:18 - Power Drawbar Operating Principle
04:08 - Priest Tools' Kit
05:55 - Belleville Washers
05:55 - Installing and Tensioning Drawbar
10:48 - Mounting the Air Cylinder
12:55 - Floating Assembly
14:11 - Electronics and Pneumatic Tubing
16:02 - Flipping the Switch!
17:01 - TTS Holders
18:55 - Tool Height Offsets
#CNC #Mill #Automatic
Resources and BOM: drdflo.com/CNC-Mill.html
Dr. D-Flo's Instagram: instagram.com/dr.dflo
D-Floβs Amazon Store: amazon.com/shop/dr.d-flo
DMM Servo Motors, Drives, and Cables:
DMM Servo Drive: geni.us/DMM-Drive
DMM X & Y Motors: geni.us/DMM-86N-DHT
DMM Z Motor w/ Brake: geni.us/DMM-A15-DHT
Power Cable for X & Y: geni.us/Power-Cable1
Encoder Cable for X & Y: geni.us/Encoder-Cable1
Power Cable for Z: geni.us/Power-Cable2
Encoder Cable for Z: geni.us/Encoder-Cable2
Tuning Cable: geni.us/Tuning
Common tools and supplies: dflo.info/Amazon
MQL System and Coolant:
FogBuster Mini: geni.us/FogBuster
DuraKut DK7000B (Paid Link): geni.us/DuraKut7000B
Misc. Products:
Servomotor Disc Coupler: geni.us/Disc-Coupler
Kurt CNC Vise (Paid Link): geni.us/Kurt-DX6
Kurt Magnetic Jaw and Parallel Set (Paid Link): geni.us/Magnetic-Jaws
Video Description:
It is time to take Dr. D-Floβs barebones CNC mill and upgrade it with components that will improve its throughput, repeatability, and cut quality. The goal is to have a capable machine for eventually producing products to sell. This is the first video in this upgrade series and is focused on improving the linear motion of the mill. To eliminate resonance (i.e. vibration) and other movement anomalies, Dr. D-Flo is swapping out the open-loop stepper motors for DMM AC Servo motors. Dr. D-Flo discusses the differences between Servo and Stepper motors and how servo motors are βposition-awareβ through closed-loop encoder feedback. Dr. D-Flo walks through the process of tuning a servo motor, which is much easier than people on the forums make it out to be.
In addition to installing the servo motors, Dr. D-Flo also adds the Mini FogBuster Mist coolant system. The FogBuster is a Minimum Quantity Lubrication (MQL) device that works perfectly for open-air mill setups because it dispenses just enough coolant to keep the endmill cool, which minimizes the mess associated with coolant/lubricant. Further, the FogBuster uses a patented technology to prevent the generation of aerosols (known as atomizing), so when you are in a small and enclosed space like Dr. D-Floβs garage the amount of coolant you will inhale will be kept to a minimum.
These upgrades combine to create some awesome parts, so if you enjoy watching a CNC mill at work then stick around until the end! Get subscribed because there will be more awesome upgrades to come.
Table of Contents:
00:00 - Introduction
04:12 - Servo vs Stepper Motors
07:38 - Installing Servo Motors
16:04 - Tuning Servo Motors
24:05 - MQL Systems
24:43 - Compressed Air Setup
26:14 - Relay & Flyback Diode
28:01 - Installing FogBuster
31:17 - Atomizing
32:09 - Test Cut
38:39 - Faster Rapids
Disclosure:
Dr. D-Flo was not paid to make this video, but he did receive the products at a reduced rate or free of charge, which is why this video is marked to include paid promotion.
#Servos #Coolant #Mill
Channels:
Fasterproms: youtube.com/user/Fasterproms1
Peter Zila: youtube.com/user/schneetiger77
Related Videos:
Building a CNC Plasma Cutter: youtu.be/mbo6soXn_kQ
Affordable CNC Plasma Cutter: youtu.be/cphSv-c2jsI
In this informal video, Dr. D-Flo builds the next iteration of the OpenBuilds CNC Plasma Table for Jeremy and his team over at Fasterproms. Equipped with the HTP 875SC plasma cutter and mechanized torch this 1500 x 1000mm table is perfect for fabrication work and will be used extensively for upcoming Fasterproms car projects.
Please note: OpenBuilds and HTP sponsored this video.
#Delivery #CNC #Plasma
Follow the Dr. on Instagram: instagram.com/dr.dflo
Supplies & Equipment:
Common tools and supplies: dflo.info/Amazon
For the past year and a half, Dr. D-Flo rode an underpowered electric scooter to work, which struggles to make it up even the smallest hills.
So his first big project after building out his garage with CNC machines was to build the ultimate electric scooter. Enter the Cyber Scooter. Constructed completely out of 6061 aluminum bars and sheets this scooter is as powerful as it is unique. Capable of speeds up to 30 mph with a range greater than 50 miles the Cyber Scooter is the ultimate city commuter.
This video contains the entire build of the scooter from fabricating the forks that hold on to the front in hub motor to plasma cutting the deck for the rider to stand on. During the build, D-Flo shares advice from his adventures into the hobbyist machining world.
Dr. D-Flo will see you on the streets!
Table of Contents:
00:00 - Introduction
02:36 - E-Scooter Motors
04:00 - Forks
16:19 - Motor Testing
17:30 - Headset
20:52 - Compression Clamp
29:13 - Steering Column
32:10 - Handle Bars
37:54 - Deck
46:51 - Securing the Steering Column
48:31 - Wiring
50:31 - Battery
51:56 - Electronics
54:55 - Brakes
58:46 - Test Ride
#DIY #Electric #Scooter
Follow the Dr. on Instagram: instagram.com/dr.dflo
Check out the Dr. D-Flo Website: drdflo.com
Rentable and personal electric scooters are all over major cities. They are cheap to purchase and maintain, requiring only a small amount of electricity to charge. However, most brand name scooters lack excitement when it comes to acceleration and style.
The Cyber Scooter is a one-off electric vehicle designed and built by Dr. D-Flo. Its 1000W motor is good for up to 30 mph and its massive battery can propel this machine for over 50 miles.
The cyber scooterβs all aluminum construction was completely fabricated in Dr. D-Floβs garage using his most recent YouTube projects: the CNC mill and plasma cutter.
Itβs difficult to call this a DIY project, but if you have the right equipment, all the supplies and CAD files are located on the Dr. D-Flo website (drdflo.com) and you can try and tackle this build.
#Trailer #Commuter #Scooter
CNC Table and Plasma Cutters:
OpenBuilds Plasma Table: drdflo.com/OpenBuildsPlasma.html
Affordable Plasma Cutters for DIY Tables: drdflo.com/Plasma.html
Heat Treatable PLA Filament: geni.us/HTPLA
Supplies & Equipment:
Common tools and supplies: dflo.info/Amazon
** Please note: Dr. D-Flo was not paid to review the Cut50L, but he did receive the unit for free. **
Dr. D-Flo's Plasma Table Build Video: youtu.be/mbo6soXn_kQ
This Dr. D-Flo video is packed full of plasma cutting content. First, David will determine if the Cut50L is compatible with the Lead Plasma table. Many import plasma cutters claim to work with hobbyist CNC tables like the Lead Plasma but in reality their use of a high frequency spark to start the plasma stream interferes with nearby electronics, such as the computer that controls the plasma cutter. To help clear up some confusion, David will explain the different operating principles of high frequency versus low frequency start plasma systems.
To put the Cut50L through its paces, David has a couple of projects lined up. One of these projects is a giant βLOVEβ sign that will be used as decoration at his sisterβs wedding. And yes, there will be some wedding footage, so stick around until the end of the video if you are interested.
This video also dives into common problems that arise when plasma cutting, such as short consumable life. Learn when to switch out the electrode and nozzle and how to prolong the life of these components by using clean, dry air.
The last project in this video will require some welding! Dr. D-Flo is adding a new tool to his garage, and it would not be possible without his new channel sponsor: HTP America. The ability to weld ferrous and nonferrous materials together with the Pro Pulse 220 will open the door to many awesome projects, so get subscribed!
Table of Contents
00:00 - Intro
00:30 - Modifications to Plasma Table
01:39 - CUT50L Overview
02:34 - High vs. Low Frequency Start
04:14 - CUT50L Test Cuts
06:11 - Love Sign
10:51 - Beer Caddy
12:45 - Dry Air
14:19 - Welding the Beer Caddy
17:46 - Finished Projects
#Plasma #Affordable #CNC
CNC Table and Plasma Cutters:
OpenBuilds Plasma Table: drdflo.com/OpenBuildsPlasma.html
Affordable Plasma Cutters for DIY Tables: drdflo.com/Plasma.html
Need help running your table?
Check out Dr. D-Flo mega guide on plasma cutting: youtu.be/wtriVCfRIK0?si=L8-GWwG2N3XSs24C
Social:
D-Flo's Instagram: instagram.com/dr.dflo
D-Flo's Website: drdflo.com
Video Description:
Building a CNC plasma cutter at home is as awesome as it sounds, albeit a little dangerous. Plasma can reach temperatures greater than 25,000C, and no metal in the path of this inferno stands a chance. In this build, Dr. D-Flo will show you how to control the motion of the plasma torch through linear actuators to achieve automated and precise cuts. This video will cover topics such as the operating principle of plasma cutters (high frequency versus low frequency plasma cutters), specialized components required for CNC plasma cutting like the floating head and water table, how to generate tool paths for plasma cutting, and many other topics.
This DIY plasma cutter (known as the LEAD plasma) is based off the OpenBuildβs LEAD Machine 1010 (Paid Link: geni.us/Lead-CNC). Dr. D-Flo received a BETA version of the lead plasma kit for review. Due to receiving the kit for free, this video is contains paid promotion, but Dr. D-Flo has used parts from OpenBuilds for several years now.
Extra Resources:
- Project page for this build: drdflo.com/pages/Projects/CNC-Plasma-Cutter.html
Related Videos for Lead Machine Assembly:
Mechanical Assembly: youtube.com/watch?v=k12o0TdIp-s&t=678s
Electrical Assembly: youtube.com/watch?v=6LY1KcPJ4s4&t=3915s
Table of Contents:
00:00 - Intro
02:21 - Parts and Overview
03:57 - Mechanical Assembly
09:12 - Floating Head
11:12 - Stand Assembly
12:15 - Electrical Wiring
13:55 - Blackbox Motion Controller
15:31 - Firmware and Control Software
17:54 - Water Table
22:05 - High Frequency Noise
29:20 - Cutmaster 40
33:25 - OpenBuilds CAM
37:17 - Cutting Speeds
40:13 - Power and Air Requirements
44:19 - Fusion 360 CAM
49:39 - Heat Resistant Holder
51:03 - Cutting Fusion 360 Parts
53:00 - Projects
#diy #plasmacutting #garageworkshop
Resources and BOM: drdflo.com/CNC-Mill.html
Dr. D-Flo's Instagram: instagram.com/dr.dflo
D-Floβs Amazon Store: amazon.com/shop/dr.d-flo
Supplies & Equipment:
Common tools and supplies: dflo.info/Amazon
A computer controlled (CNC) mill can turn digital 3D models into metal parts with ease. However, turnkey CNC mills are often too expensive for the garage DIYer who doesnβt plan to turn a large profit. Dr. D-Flo took the more affordable approach and converted a manual Precision Matthews mill (833T) to CNC by swapping in ball screws and stepper motors. While the mechanical portion of this video is specific to the 833T, the electronics and software can be used in any mill conversion or the creation of any large CNC machine for that matter. Learn how the Mesa7i76e controller board, LinuxCNC, and Probe Basic work together to translate user input and 3D models to real life movements of the mill. This addition to the Dr. D-Flo garage has acted as a catalyst for some awesome upcoming projects so get subscribed!
Table of Contents:
00:00 - Introduction
00:48 - Lead Screw vs. Ball Screw
01:45 - Disassembly
04:00 - Dovetail Ways
04:38 - Z-Axis Conversion
07:05 - Hand-Scraped Ways
07:35 - Y-Axis Conversion
07:57 - X-Axis Conversion
08:15 - Reassembly
09:38 - Tramming
12:44 - Electronics
19:00 - LinuxCNC & Probe Basic
20:58 - Test Cuts
Dr. D-Flo's Web 3D Printer Guide: dflo.info/3D-Printer-Building
3D Printer Components from OpenBuilds (Paid Link): geni.us/OpenBuilds
Dr. D-Flo's Instagram: instagram.com/dr.dflo
Supplies & Equipment:
Common tools and supplies: dflo.info/Amazon
Description:
Welcome to the one stop guide for designing and building a 3D printer from open sourced parts. The 3D printer is the ultimate DIYerβs tool to quickly make his or her idea a reality. All the concepts and parts that go into building a 3D printer can be overwhelming. Dr. D-Flo breaks down the fundamentals behind fused filament fabrication (FFF) into bite size and digestible topics, including linear rail, carriages, stepper motors, extruders, stepper drivers, control boards, and more. Dr. D-Floβs tips will help you choose the correct parts that fit your custom design.
For further exploration, visit my dedicated "How to build a 3D Printer" webpage (drdflo.com/pages/Guides/How-to-Build-a-3D-Printer/FFF.html) and while youβre there, continue the conversation on my forum (forum.drdflo.com/). Special thanks to Stephen and his design of the Zidex printer (github.com/stephenci/ZideX) which inspired this video and was a great teaching tool.
Related 3D Printer Links:
How to Build Zidex: drdflo.com/pages/Projects/Zidex.html
Best DIY 3D Printer Designs: drdflo.com/pages/Guides/Best-DIY-FFF-3D-Printers.html
Top Commercial 3D Printer Designs: drdflo.com/pages/Guides/Best-Commercial-FFF-3D-Printers.html
Table of Contents:
00:00 - Preview
04:33 - Linear Rail
07:57 - Linear Rods
11:45 - Carriages
15:21 - Transmission
28:22 - Stepper Motors
42:32 - 3D Printer Assembly
54:15 - Extruder
1:05:32 - Print Bed
1:10:02 - Limit Switches
1:17:16 - Motherboards
1:23:47 - Stepper Drivers
1:30:24 - Microstepping
1:36:29 - Power Supply
1:39:30 - Wiring
1:46:28 - Firmwares
2:00:51 - Calibration
2:12:59 - Dual Extrusion
The Flexispot standing desk is a modern and powerful desk capable of propelling loads up to 200 lbs to a comfortable height for working while standing. The main drawback of the desk is the usual suspect: price. Watch the video to see Dr. D-Flo's thoughts on his first standing desk.
The desk reviewed in this video was a free review unit provided by Flexispot. Dr. D-Flo did not receive monetary compensation for the review.
Workshop Wars: drdflo.com/workshop-wars
GearBest's Filament and Much More (Sponsor): gearbest.com/3d-printer-supplies-c_11401/?lkid=11136753
After a small hiatus, Dr. D-Flo returns with a stunning new desk. This custom design features waxed steel and carrara marble. This desk is serious business, weighing in at over 600 pounds (270 Kg). A splash of red offsets the neutral colors of the design. Submit your desk setup to be featured on Dr. D-Flo for a chance to win $50 and internet fame!!
Part 1 (syringe pump): youtu.be/UHa-OKb_CiM
Dr. D-Flo wanted to 3D print edibles, but this is more difficult than you think! Clearly, you can't use a normal extruder, so Dr. D-Flo will use a syringe pump to excrete an edible frosting. The resolution of frosting is poor compared to PLA/ABS. Therefore, Dr. D-Flo wanted a large bed size, so he took an X-Carve frame and converted it into a 3D printer. However, the RAMPs Pololu stepper drivers are unable to supply enough current for the X-Carve's power hungry NEMA 23 stepper motors. Like always, Dr. D-Flo over engineered a solution by using SainSmart's 4.2A drivers to receive data from RAMPs and power the stepper motors.
Description:
Tell your wife/girlfriend that purchasing beer by the keg is better for the environment! Kegs eliminate all can waste. But once you get your hands on all the beer that you can drink how will you keep it cold? Dr. D-Flo converts an old Jack Daniel's barrel into a classy kegerator, a perfect addition to the man cave. His kegerator is equipped with a CO2 tap for a true bar experience at your home.
Special thanks to:
Jeff
Elise
Christian
Katie
Maddie
Description:
Tell your wife/girlfriend that purchasing beer by the keg is better for the environment! Kegs eliminate all can waste. But once you get your hands on all the beer that you can drink how will you keep it cold? Dr. D-Flo converts an old Jack Daniel's barrel into a classy kegerator, a perfect addition to the man cave. His kegerator is equipped with a CO2 tap for a true bar experience at your home.
Description:
Tell your wife/girlfriend that purchasing beer by the keg is better for the environment! Kegs eliminate all can waste. But once you get your hands on all the beer that you can drink how will you keep it cold? Dr. D-Flo converts an old Jack Daniel's barrel into a classy kegerator, a perfect addition to the man cave. His kegerator is equipped with a CO2 tap for a true bar experience at your home.
Charring: vinepair.com/wine-blog/what-are-barrel-char-levels-and-how-do-they-affect-the-way-my-whiskey-tastes
Citations:
1.) michbich: commons.wikimedia.org/wiki/File:Peltierelement.png
2.) Heatlord: commons.wikimedia.org/wiki/File:CFD_Free_Convection_Peltier_Cooler.gif
Dr. D-Flo was lucky enough to receive a beta kit for Roboteurs'Β 3D printable 6-axis robotic arm, known as the RBX1. This is not a sponsored video because Dr. D-Flo payed for the kit, so he is not obligated to give Roboteur a good review. However, this is such an awesome project! If you are familiar with 3D printed robotics you may notice that RBX1 is a mirror image of BCN3D's MOVEO robotic arm. There are two major differences between the RBX1 and MOVEO. First, RBX1 has an extra axis located between the wrist and the gripper, and second, the stepper motors are powered by Roboteurs' SlushEngine. Furthermore, Roboteurs provides code that allows you teach the robotic arm movement with an xbox controller. This software greatly decreases the difficulty of this project.
Youtube: youtube.com/c/drdflo
Website: drdflo.com
Thanks guys,
Dr. D-Flo
Creator: thingiverse.com/thing:1645081
Please note the Thingiverse file has since been updated and approved. Some of my critiques may no longer be relevant. Thanks!
Dr. D-Flo was lucky enough to receive a beta kit for Roboteurs'Β 3D printable 6-axis robotic arm, known as the RBX1. This is not a sponsored video because Dr. D-Flo payed for the kit, so he is not obligated to give Roboteur a good review. However, this is such an awesome project! If you are familiar with 3D printed robotics you may notice that RBX1 is a mirror image of BCN3D's MOVEO robotic arm. There are two major differences between the RBX1 and MOVEO. First, RBX1 has an extra axis located between the wrist and the gripper, and second, the stepper motors are powered by Roboteurs' SlushEngine. Furthermore, Roboteurs provides code that allows you teach the robotic arm movement with an xbox controller. This software greatly decreases the difficulty of this project.
Dr. D-Flo was lucky enough to receive a beta kit for Roboteurs'Β 3D printable 6-axis robotic arm, known as the RBX1. This is not a sponsored video because Dr. D-Flo payed for the kit, so he is not obligated to give Roboteur a good review. However, this is such an awesome project! If you are familiar with 3D printed robotics you may notice that RBX1 is a mirror image of BCN3D's MOVEO robotic arm. There are two major differences between the RBX1 and MOVEO. First, RBX1 has an extra axis located between the wrist and the gripper, and second, the stepper motors are powered by Roboteurs' SlushEngine. Furthermore, Roboteurs provides code that allows you teach the robotic arm movement with an xbox controller. This software greatly decreases the difficulty of this project.
Dr. D-Flo was lucky enough to receive a beta kit for Roboteurs'Β 3D printable 6-axis robotic arm, known as the RBX1. This is not a sponsored video because Dr. D-Flo payed for the kit, so he is not obligated to give Roboteur a good review. However, this is such an awesome project! If you are familiar with 3D printed robotics you may notice that RBX1 is a mirror image of BCN3D's MOVEO robotic arm. There are two major differences between the RBX1 and MOVEO. First, RBX1 has an extra axis located between the wrist and the gripper, and second, the stepper motors are powered by Roboteurs' SlushEngine. Furthermore, Roboteurs provides code that allows you teach the robotic arm movement with an xbox controller. This software greatly decreases the difficulty of this project.
Dr. D-Flo, Jeff and Elise work together to turn ordinary stock wood into a custom magnetic bottle opener that is capable of catching almost one hundred bottle caps!
Addressable LEDs Overview: youtu.be/VNhWM4Mnd-I
It was only a matter of time before Dr. D-Flo built another clock out of NeoPixel LEDs. He stumbled upon Adafruit's word clock project. While the concept was cool, Dr. D-Flo felt like the design lacked style. By nature a word clock is not practical, so it needs to look classy. Therefore, Dr. D-Flo decided to make his clock with an anodized aluminum face. He did not stop at one but ended up building 5 clocks!


