nyuuzyou/wikis huggingface dataset:
4th Axis (HAAS Mill)

thumb|right|200px|HAAS Mill 4th Axis
The 4th axis is used in conjunction with the HAAS mill to give you an additional degree of freedom while machining parts.</font>
This page provides a basic tutorial on mounting the fourth axis on the HAAS mill. 
	
== Installing/ Uninstalling 4th Axis ==
{| class="wikitable" style="text-align: left;"
|+ style="text-align: left;"| Setup
! style="text-align: left;"|Tool/Step!!style="text-align: left;"|Description
|- 
	
==References==
90 Degree Mill Head

In the UI mechanical engineering relies heavily on manual milling operations for manufacturing specific design components. Most can be accomplished with standard milling procedures (i.e. typical stock set-up with x, y and z manipulation), however some require varying tooling set-ups due to their geometry and limitations of the machines. 
The 90 degree mill head is a change-over tooling set-up which allows machining part faces which would otherwise be impossible to machine; For instance, a very long part which could not fit in the machine in one or more orientation. The head allows all basic machining abilities, including facing, drilling & tapping, slotting, etc.
 
== Safety ==
Proper installation of the 90 degree mill head is critical. A few important things should be noted before using the mill head.
:*Miter gears within the mill head REVERSE rotational direction.
:*All standard safety procedures for shop should be used during operation.
:*Follow typical milling/drilling procedures (be especially cautious of climb cuts and peck drilling)
:*Max recommended spindle RPM = 2300 (noted on mill head as well)
== Installation ==
The 90 degree mill head can be found in cabinet #10, towards the back of the shop. It works much like most collet and other tool installations on the manual mill with only minor additions, noted in the changeover table below. Installation of the 90 degree mill head is not done often, thus careful attention on proper installation is critical. A shop manager and/or mentor is recommended to oversee changeover operations of this type.
Step by Step Instruction on Installation of Mill Head
Tool/Step	Description
 	
 	
 	
 	
 	
 	
 	
 	
 	
For further visual instruction, visit these links:
Video Download
Instructions Image Link
<youtube>JqVO8LXcHNs</youtube>
Admin Page

This page is used by the site's admins to keep track of tasks. As the site's complexity increases so will this page's, but for now, tasks are entered as bulleted lists under the assigned personnel's name. If a requested completion date exists, put it on the same line as the task separated by a dash ex. 'Create a new template - 7/12/2013'. Notes for each task may be entered as sub bullets or numbered list. If a task warrants discussion or more lengthy notes, please create a separate page.
==Brian Hanson==
 User:Briangh
Aerodynamic Jump and Bullet Stability

This project is to find the center of mass of bullets in order to improve testing procedures for Vista Outdoors. By locating the center of mass we find a correlation between an offset center of mass and irregular bullet paths. 
==Problem Definition==
===Background===
Typical bullet makeup consists of a lead alloy core and a copper alloy jacket. Irregularities in subsurface bullet geometries cause radial dispersion between individual bullets when fired. Current destructive testing methods for bullets do not allow for a direct correlation between measured eccentricities and the radial dispersion of the fired bullets. [If you deconstruct a bullet to measure its eccentricities it is impossible to fire it. Once you fire a bullet its characteristics are modified and original eccentricities are immeasurable.]
===Specifications===
A device capable of non-destructive testing for center of mass variance to ± .001 inches for bullet diameters from .224 thru .338 inches. The ideal device could detect variance created by the addition of a cannelure or a plastic tip, have the ability to detect voids between jacket and core, and would detect density variations, or voids, within the lead core.
==Design==
===Selection===
			
===Details===
We went through the geometry and had wolfram alpha separate out the tipping angle then we used Matlab to solve for the uncertainty.
			
===Testing===
==Team Information==
Team "Class Acuracy"	Team "Class Acuracy"	Team "Class Acuracy" 	Team "Class Acuracy"	Team "Class Acuracy"	Team "Class Acuracy"
Picture 	Biography 	Discipline 	 	 	
Dustin Gross 	
*Hometown: Bayview Idaho 
*Graduation Date: May 2019
*Future Goals: Board member of a publically traded company
*Email: gros4217@vandals.uidaho.edu	Mechanical Engineering	 	 	
Dustan Paul 	
*Hometown: Minnesota
*Graduation Date: May 2019 
*Future Goals: Work in Industry
*Email: pauldustan@yahoo.com	Mechanical Engineering	 	 	
Geoffrey Wood 	
*Hometown: Rathdrum Idaho
*Graduation Date: May 2019
*Future Goals: Build something and help society
*Email:wood5752@vandals.uidaho.edu	Mechanical Engineering	 	 	
Atticus Zborowski
120px|center	
*Hometown: Boise, Idaho
*Graduation Date: May 2019
*Future Goals: Become the smartest human ever and conquer the world...or work in industry.
*Email:Zbor8186@vandals.uidaho.edu	Mechanical Engineering	 	 	
==Document Archive==
===Project Schedule===
Schedule
===Meeting minutes===
9/11/18
9/20/18
9/28/18
10/4/18
===Other===
Agilent E3631A

400px|thumb|Agilent E3631A
DC power supplies are used to provide power, at a user specified voltage level and current limit.
This model can provide at its outputs between 0 and +/- 25 Volts at up to 1 Amp, as well as another +6V output rated up to 5 Amps. The voltage and current level of the selected output can be adjusted on the front panel. The power supply will display the user set voltage and current levels in Limit Mode, or the actual instantaneous voltage and current values in Meter Mode.
== Availability ==
Additional basic DC power supply models are available in the ME 330 lab including breadboards with built in power supplies.
For more information on how to access or check out a power supply for course projects contact:
Lab Supervisor: Ankit Gupta 
E-mail: ankitg@uidaho.edu
==Front Panel And Interface==
	
== Setting Voltage And Current Limit ==
==User Manual & Data Sheet==
Alexander Tatarnikov (diezel sun)

Alexander Tatarnikov - famous student and artist, the founder of the new artistic style in visual art, participant educational projects healthy youth. In their speeches, teachers and students, he said that should be good to develop today's youth, because it affects the future of the planet. He is also the founder of a new movement in visual art. This theme is associated with ufology and space and it is very popular in the world.
== Reference ==
Category:culture
Category:the participants of the educational projects
<gallery>
File:Picture.jpg
Autonomous Underwater Vehicle Sensor Processing

To improve the analog/digital data processing system aboard the Automated Underwater Vehicles being developed by the Center for Intelligent System Research (CISR).
==Problem Definition==
The current analog/digital data processing system is too large and has too much noise. It also is unable to off-load the data without opening up the AUVs. Our main goals are to reduce the size of the system, reduce the noise and add wireless capabilities.
===Background===
Why Have Sensors on the AUVs
The sensors on the AUV allows for extensive data collection that can be used to navigate, identify ships, and detect anomalies in the water. This task is critical as an extension for naval weapons systems.
===Specifications===
 Ability to record 6 differential channels at 16 kHz 
 Meet Navy's storage specifications
 Wireless offload of information
===Deliverables===
 Reduce the size of the processor 
 Reduce noise from the sensor 
 Add wireless capabilities 
==Design==
Design includes the testing and selection of the amplification system, wireless system, data storage, and the ADC processor block. The first component to be designed was the amplification system.
===Testing===
Amplification 
Extensive testing of the amplification system has been conducted to ensure maximum noise reduction as told in the deliverables. This included comparing three different amplifiers, the carderock (ONR), instrumentation amplifier (INA), and the dexter amplifier. To test them a spectrum analyzer was used to compare frequency responses and a Matlab code was then implemented to compare the noises. Here are the results of the comparisons:
==Project Learning==
 Characterized current sensors amplifiers noise 
 tested multiple amplifiers for comparison 
==Team Information==
	 	
	Kevin Blosser 	Interests: Electromagnetic Theory and Antennas.
	Electrical Engineering 	Interests: Electromagnetic Theory and Antennas.
	Hometown: Boise, ID 	Interests: Electromagnetic Theory and Antennas.
	Email: blos6439@vandals.uidaho.edu	Interests: Electromagnetic Theory and Antennas.
	 	
	Chris LeBlanc 	Interests: Digital Design and Software.
	Computer Engineering 	Interests: Digital Design and Software.
	Hometown: San Diego, CA 	Interests: Digital Design and Software.
	Email: lebl8900@vandals.uidaho.edu	Interests: Digital Design and Software.
	 	Interests: Digital Design and Software.
==Document Archive==
Meeting minutes and agendas:
Media:2105 AUV meetingminutes.PNG
Bead Blaster

The bead blaster is used to remove left over material from a surface without damaging the surface. This is done by blasting fine glass beads at high pressure. It leaves a textured finish. The bead blaster (Cyclone) at the University of Idaho is located at the back of the machine shop in the welding area.
==How to Use the Bead Blaster==
*Step 1.
Open the door to the chamber and place part inside. 
*Step 2. 
Close and lock the chamber. 
*Step 3.
Turn on the vacuum. 
*Step 4. 
Open the air pressure valve located on lower left side of the chamber. 
*Step 5.
Place your hands in the gloves and use the bead blaster as evenly as possible (beads cannot penetrate gloves).
*Step 6.
Close the air valve and depressurize the sandblaster. 
*Step 7.
Turn off the vacuum.
*Step 8. 
Remove your part.
*Step 9.
Clean up any fallen sand (DO NOT use vacuum).
==If Your Piece Falls Through the Gate ==
*Step 1. 
Place a 5 gallon bucket with a strainer under the release valve located at the bottom of the chamber.
*Step 2. 
Hold the valve open until your piece falls into the bucket(it is spring loaded, but make sure it closes completely).
*Step 3. 
Pour beads back into the chamber through the door.
Belt Sander

A belt sander rotates a continuous band of abrasive material to remove material to smooth or finish a surface.
left||thumb|The Belt Sander
== Safety ==
Wear goggles to protect from metal grinding or debris.
Avoid wearing loose or baggy clothing to prevent entanglement in the belt.
Never wear gloves despite the heat, gloves can easily get sucked into the belt.
If anything is sucked into the belt immediately let it go.
thumb|Damage caused by the belt walking
Do not try to angle thin material, keep it flat against the platform as thin material can easily get sucked into the belt.
Do not push the material into the belt, this can cause the belt to walk resulting in serious damage.
If you have any questions or the sander is not working immediately ask your mentor or the shop manager for assistance.
==Inspection==
Check for physical damage such as worn belts or loose fittings.
When changing belt make sure machine is unplugged.
==Working the Sander==
===Basics===
Turn on the belt sander before making contact with the surface it will be easier to control. 
Do a small test run on material surface because the belt sander may have a different effect on the surface.
Hold piece securely and don’t try to run the belt sander with one hand. 
Let the belt sander do the work and don’t apply excessive pressure.
===Angles===
The belt sander is capable of sanding at an angle, you can use the angle adjustment lever to move the platform and safely sand at an angle.
center||thumb|The Angle Adjustment Lever
===End of Work===
Remove material you’re working on from the belt sander when finished before stopping the machine.
Clean the area around the sander, it should be as clean as you found it.
===Best Practices===
Material can often become hot while sanding, use a cup of water to dip your material in to keep it cool. When dealing with the corners of material do not push into the belt, this can cause your corner to get sucked into the belt ruining your piece.
Best Practices

When creating content for the Mindworks Wiki please adhere to the following list of best practices
* Show only meaningful graphics with descriptive captions
* Break up information into digestible chunks
* Embed links to download part files (don't refer to shared drive location) <= Not possible yet; instead refer to shared drive location.
* Separate information into categories/steps
* Include information describing why or what in general intro
* Essentially try to replicate wikipedia
* Use the "Show Preview" button to view what your wiki will look like rendered.
* Use professional language
* Use passive tense with imperative mood(instead of you need to follow the best practices use follow the best practices)
Best Practices and Tips

Always make sure your part is in a well-lit environment. 
These 3 types of material will considerably affect the scan: 
High reflectivity will lead to a mirror effect which makes it difficult to read the pattern on the part
Black color will absorb light and it will be hard to contrast the object against the background 
Transparency will not reflect enough and the scan will not be complete 
Acquisition parameters can be adjusted in order to counteract the effect of black, reflective and transparent object
Good part preparation will also lead to better results
Bidirectional Acoustic Modem

Basic Description of Project
==Background==
==Problem Definition==
There are many problems with existing underwater communications. Firstly, All Electromagnetic-based communications (except for ELF (Extremely Low Frequency), which is prohibitively regulated, expensive, and requires large antenna) fails to pierce beyond a few feet underwater, which leaves pressure waves (sound).
The existing Acoustic modems are all either expensive, proprietary, slow, or some combination of the three.
This project seeks to remedy that by creating an inexpensive modem that meets the requirements listed below.
==Deliverables==
One Complete communication unit, able to be attached to the submarine "The Catfish" and a base station
===Initial Specifications===
Range: 1000 m
Bit rate: 9600 bps
Error Tolerance: < 1 bps 
Cost: < $500
latency: No requirement
Additional Features:
* Low Power Mode
* Bidirectional System
==Schedule==
===Semester 1: 2019SP===
TODO
===Semester 2: 2019FA===
TODO
==Team Information==
===Team Biographies===
Team Member	Major
Luke Hill: 
Luke is the primary client liaison and team meeting organizer. He is currently working on the modulation of data and hardware configuration	Computer Science
Devin Driggs:
Devin is the project wikimaster. He is currently working on demodulation and de-noising, as well as the networking aspects of the connection.	Computer Science
===Contact Information===
Devin Driggs - drig3819@vandals.uidaho.edu 
Luke Hill - hill4714@vandals.uidaho.edu 
Discord Server - https://discord.gg/CHXNDDB
==Document Archive==
TODO
Boring Head

Boring heads are used to create large diameter holes when tolerances do not allow for a drill bit or do not have a large enough drill bit or reamer. A boring head can also be used to enlarge holes, or adjust hole centerlines in certain instances.
== Tips ==
For a smooth finish remove 0.002 inches on the final pass. Use cutting oil to cool and lubricate tool.
== Safety ==
Be sure all set screws are tight before operation. Be sure boring bar has a clearance to fit into hole when boring. Remove Allen wrench before turning the mill on. Double check mill speed before operation.
 
== Installation Procedure ==
thumb|left|200px|QR code to access boring bar web page 
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Broach

Broaching is a machining process that is commonly used to cut complex shapes on shafts and in holes when a precise shape is required. A broach is a special tool that has a series of blades that progressively cut deeper and deeper. There are many different sizes and shapes of broaches including ones that cut square holes and splines. One of the many different types of broaches is a linear broach that is used for cutting keyways in holes. It is used so that a circular shaft with a key can be inserted into a hole with a keyway and the shaft will not rotate or spin within the hole. A linear broach is normally used with a broach machine or some sort of press. Broaching is an efficient machining process because it only takes one pass to make a complete cut.
==Procedure==
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==References==
Built Parts (MakerBot)

{| class="wikitable"
|-
!Images
!Part
!Purpose
!Results
!Time
!Post Print Processing
|-
||thumb|200px
|Block Project Top Block
|Get used to the machine, learn about shrinkage and expansion, Test Post Print Processing Techniques.
|.008” = .6% shrinkage in Z
.004” = .2% shrinkage in Y
.003” = .4% expansion in X
|Est.: 91 min
Act.: 81 min
|Sanded down to fit in the metal block. Holes were reamed successfully.
|-
||thumb|200px
|Arches .125”
|To determine Makerbots corner capacities and arch radius problems.
|Corners on the ZY and ZX planes are sharper than corners in the XY plane. Drooping occurred when .375” of overhang exists
|Est.: 15 min
Act.: 13 min
|None
|-
||thumb|200px
|Arches .250”
|To determine Makerbots corner capacities and arch radius problems.
|Similar results, Corners on the ZY and ZX planes are sharper than corners in the XY plane. Drooping occurred when .375” of overhang exists
|Est.: 18 min
Act.: 17 min
|None
|-
||
|1” Cube Standard Resolution (.27)
|To determine Makerbots corner capacities and arch radius problems.
|.004” = .4% shrinkage in Z
.002” = .2% shrinkage in Y
.003” = .3% expansion in X
|Est.: 30 min
Act.: 27 min
|Sanded on belt sander. Won't smooth evenly.
|-
||
|1” Cube Mid Resolution (.15)
|To determine % of shrinkage and expansion in each axis and time difference.
|.004” = .4% shrinkage in Z
.002” = .2% shrinkage in Y
.003” = .3% expansion in X
Resolution doesn't effect Shrikage/Expantion.
|Est.: 31 min
Act.: 38 min
|Saturated with water. Water was not absorbed. Object was 50% buoyant at 10% hallow.
|-
|thumb|200px
|Cone
|Printed to determine circle problems.
|.01% shrinkage in Y
.05% expansion in X
Error Printing in Z Lost .35" of tip.
|None
Est.: 87 min
Act.: 91 min
|
|-
|
|1 x .5 x .5 Rectangle
|Built with 4 Shells for machining.
|.001” = .2% expansion in Z
.010” = 2% expansion in Y
.004” = .4% expansion in X
|Est.: 8 min
Act.: 8 min
|Milled one edge at Aluminum speeds which resulted in perfect smoothness. Learned 4 layers = .0848" thickness.
CAI Tower

This tutorial walks through the setup and use of the CAI Tower. All of this information is also on the tower.
==Setup and Start Procedures==
Image	Step
 	
Plug in the power cables to two separate circuit breakers. If you don’t it will trip a breaker.
 	
Plug the calibration gases into the back of the tower as shown in the system diagram. Make sure you attach regulators to the bottles before plugging the lines in and opening the valves.
 	
Plug the zero air into the back of the tower.
 	
Turn on the analyzers using the main power button on the top of the front of the tower.
 	
Turn on the PC attached to the tower.
 	
Ignite the THC analyzer and wait an hour for it to heat up. The THC analyzer is the top analyzer, ignite by pressing MAIN -> F8 -> Ignition
 	
Start the NOW program.
 	
# Do not coil the heated line.
# Wear ear protection if the tower is on.
# Only move gas containers if the caps are on.
# Don’t open gas valves until after the lines are connected.
# Make sure all vents/fans are on prior to running experiments
==Taking Measurements==
Image	Step
 	
Open the NOW program.
 	
Go to ‘Testing’ then select ‘Bench Control Utility’.
 	
Select your desired bench operation.
 	
Click ‘Begin’ to start logging and ‘End’ to stop logging.
 	
To open the data you just logged open the ‘DATA_LOG’ folder shortcut and then open the file you created.
Capstone Design - Current Projects

==Fall 2015==
* Adjustable Governor for Synchronous Generator - SEL
* Autonomous Robots
* Bandbeesten Legacy
* Biodiesel Reactor Modifications
* Boeing Wing Rib Workstation
* Desalinator
* Field Flashing Synchronous Generator
* Fleet Service Responder
* Flight Management and Data Acquisition System for a Dynamically Scaled Model Airplane
* Formula Hybrid Car (FHSAE) 2015-2016
* Flywheel Energy Storage System
* Impact Testing Device - Nightforce Optics
* Integrated Rocket Ramjet
* Mapping Rabbit Burrows 2015
* NAVSEA Robosub Competition (2015-2016)
* Near Space Engineering
* Persistence of Vision Machine
* Poinsetta Greenhouse Device
* Rehabilitation Training System
* Robotically Assisted Manufacturing Workcell
* Snowmobile Traction Control
* Substation in a Box - SEL
* Thermal Management for a High Efficiency Power Converter
* Trunk Stiffness Bending Device
* Touchscreen Kiosk
* Tube Extraction Technology
* Vorsana CO2 Scrubber
* NEW Wastewater Treatment
* Web-based_Security_Hardening
Clean shooters

== Visible Particle Inspection Device ==
Problem Statement:
To design and build an inspection device that will detect particles present in fluid contained in both 2.25mL and 10mL glass syringes as well cracks in the syringes themselves. 
==Team Members==
*Nick Rodriguez (Electrical Engineering Student)
**Hails from Pocatello, Idaho. 
*Nate Pueschel (Mechanical Engineering Student)
**Hails from Boise, Idaho. 
*Justin Herrick (Mechanical Engineering Student)
**Hails from Eagle River, Alaska. 
*Greg Atkinson (Mechanical Engineering Student)
**Hails from Gig Harbor, Washington. 
==Project Description==
Outcome
*The device needs to clearly display a pass/fail indication for each syringe inspected so that the operator can separate the 'good' syringes from the 'bad'.
Passing Requirements
*No visible cracks on the glass
*No particles over 40 microns (Human eye smallest viewing)
*Proper level of head space between the liquid and the stopper
Specifications
*Under 2' by 3' base dimension
*Approximately inspects one syringe/second
*Clear, easy to understand, pass/fail indications
*Must operate in refrigerated environment (5°C ± 3°C)
*LED lighting that provides good contrasts
 
==Current Rough Concept==
thumb|right|First major rough draft of concept
Main Ideas
*Two stations so that the machine can be running at all times
*Fully automated so that there is little human factor involved
*Use a Micro-controller to be the brains of the operation
*Camera to take pictures of the syringes
*Those pictures will run through an analysis program to determine if the syringes are clean
*LED lights will show if the syringes are clean or not
*Loading station to unload/load the syringes
==Technology and Software==
thumb|right
*Small compact GigE Vision camera, Genie TS-M4096
**Camera Brochure
*ATS Smartvision Softare
**Smartvision Brochure
*Cerbot MicroController
**MicroController Brochure
==Sponsor==
Revalesio Corporation
Revalesio Corporation is a pioneering biotechnology company based in Tacoma, Washington, dedicated to restoring hope and transforming lives.
"Our goal is to maximize the benefits of our novel technology by developing products that represent a potential new class of treatments for inflammatory mediated diseases. To that end, Revalesio has partnered with leaders in biomedical research as well as non-profit organizations around the world, to help us deliver on our promise to bring hope to people around the globe."