nyuuzyou/wikis huggingface dataset:
Generating QR Codes

This page provides a basic tutorial on creating a QR code (Quick Response Code). QR Codes can be used for a variety of applications and offer a very easy way to access or share information. 
Note: QR codes can be accessed with a smartphone using Google Goggles or another QR reader
==Create the material ==
All information should all have a similar feel and flow. Wiki's greatly simplify the process, but care should be taken to ensure readability and consistency. This document can be used as a basic template; also the Main Page has some examples on formatting. All documents should be created according to the Best Practices.
==Copy the page URL ==
After creating content, save the page using the "Save page" button at the bottom of the editor. Copy the URL corresponding to the desired page. (Subsections can also be linked. To do this right click on the subsection heading in the Contents box and select "Copy link address".)
==Use a QR generator to create the QR code==
Many good QR generators exist online for free. One good option is QR Code Generator. If using QR Code Generator select the URL tab on the left and paste the desired link in the box. A QR code will be generated very quickly.
==Save the QR Code==
Save the generated QR code using a descriptive title (such as "QR_CodeGeneration.png") and .png format. Upload the QR code to the Mindworks page by following the link or selecting "Upload file" from the toolbox. Select the newly created QR code from the "Source filename" field in the Source file box. Next complete the "File description" box (None selected is appropriate for the Licensing field). Finally selection "Upload File".
==Print QR Code ==
Print QR code with descriptive title and place laminated QR code in appropriate area.
Greenhouse Controller

=Goal=
The goal is to develop a green house controller. This product will operate without a grid-connection and be capable of gathering necessary data from sensors and controlled devices defined by the end user.
=Background=
The Greenhouse Controller was a project developed by high-schoolers mentored by Mr. Sikes throughout 2017-2018. Their project goal was to have a functioning product turning peripherals on and off based on data received from sensors. The sensors used were temperature and humidity sensor and soil moisture sensor. They used some peripherals such as a lamp and a fan only for the purpose of testing and research development.
=Specifications=
*Inexpensive (<= $100) ​
*Power availability of 2A at 5V​
*Off grid power duration (4 hours intermittent) ​​
*Works sensors for humanity (temperature, soil moisture, soil temperature)
*Working controller devices including (relay)
*Temperature range (-20C to 50C)​
*Portable <= (15cm x 15cm x 10.cm) 
*Light Weight (<= 4.5kg)
=Goals=
*To find an alternative to charge the battery while it's connected to the solar panel.
*operating voltage and current.
*Building a prototype and testing it.
*Design an enclosure for the controller.
*Adding more buck converters to provide 3V and 5.5V and 12V to the power supply. 
*Adding more peripherals.
=Data=
Grid Connection System				
Sensors 				
Solar Panel 				
Battery Charging 				
=Future Development=
TBD upon completion of the project.
=Design Development=
*
==Initial Designs==
==Design Implementation and Improvements==
==Enclosure Design==
*Pi 0W​
*DC-DC Converter​
*Barrel Jack​
*Battery​
*Solar Charge Controller​
*Pin out ports​
*Relays​
*Controlled Wall Outlets​
*Power input switch​
*150mmx150mmx20mm​
===Prototype Testing===
=Project schedule=
* 
* 
=Team budget=
* 
=Team Members=
		Abdulrahman Alnounou 
Major: Electrical Engineering 
Hometown: Jeddah, Saudi Arabia
Responsibility: Wiki page, Solar Panel 
Email: Alno8802@vandals.uidaho.edu 
Bio:Abdulrahman is an electrical engineering Student.He is a person who love sports, indoor and outdoor activates.
For his free time he plays video games.
		Cliff Galli ​
Major: Electrical Engineering 
Hometown: Enterprise, Oregon 
Responsibility: Leader, Power Supply Development 
Email: gall9148@vandals.uidaho.edu 
Bio: Cliff is an electrical engineer. His hobbies include 3D printing, computer hardware, and video games.
		Kim Huynh 
Major: Computer Engineering 
Hometown: Boise, Idaho 
Responsibility: Project Manager, Sensor Coding 
Email:huyn3743@vandals.uidaho.edu 
Bio: Kim is a Computer Engineering student who, when not in the lab or doing projects, enjoys drawing whatever is on her mind (usually rabbits) and playing video games.
		Suhail Alzuhairi 
Major: Electrical Engineering 
Hometown: Yanbu, Saudi Arabia 
Responsibility: Budget Master, Power Supply Development 
Email: alzu5833@vandals.uidaho.edu 
Bio: Suhail is an Electrical Engineering student who enjoys photography and doing outdoor activities. He is also a very passionate chef who is always happy to feed others.
=Additional Documentation=
* 
* 
* 
* 
* 
* 
* 
* 
* 
* 
* 
*https://github.com/UIdaho-Wintergreen
HP 34401A

400px|thumb|HP 34401A
Digital multimeters are capable of measuring a variety of electrical values including DC and AC voltage, current, and resistance over a broad range.
== Availability ==
Two bench-top digital multimeters are available in the ME 330 lab including the Fluke 8842A.
For more information on how to access or check out this machine for course projects contact:
Lab Supervisor: Ankit Gupta 
E-mail: ankitg@uidaho.edu
==Front Panel And Interface==
==User Manual & Data Sheet==
HW-SD-6-24-12

All members of senior design need to do the following:
*create a login
*create a page for your senior design project (coordinate with the rest of your time)
*categorize your page
*create a layout for your page using several different header levels
*add a description of your senior design project
*each member should add a distinct table and sign below the table they created
*add an internal link to another page
*add an external link
*add a reference
*leave a comment
HW-SD-6-24-13

All members of senior design need to do the following:
*create a login
*create a page for your senior design project (coordinate with the rest of your time)
*categorize your page
*create a layout for your page using several different header levels
*add a description of your senior design project
*each member should add a distinct table and sign below the table they created
*add an internal link to another page
*add an external link
*add a reference
*leave a comment
Horiba Emissions Analyzer

The Horiba MEXA-584L is an emissions analyzer used in the Small Engines Research Facility. It reads percentages and parts-per-million of gases in the exhaust stream during engine testing.
==Maintenance==
===Filters===
Every time you run the Horiba you should check the three filters and replace them if needed.
# Pre-Filter: Located in the large white handle on the exhaust probe
# Dust Filter: Located under the large circular cap on top of the Horiba unit
# Strainer: Located on the back of the Horiba unit
===Leak Check===
The Horiba runs this test to make sure there are no loose connections or leaks in the lines.To run the leak check, press: Standby>Menu>Leak Check>Select on the main unit. Next, plug the end of the probe with your thumb. Once the probe is plugged, press Start and wait for the test to end. The Horiba will tell you whether or not you passed. If you passed, exit back to the main screen. If not, check lines and connections and rerun the test.
===HC Hangup Test===
The Horiba uses this test to see how much HC is left in the lines and filters, and calibrates to that amount to keep your data more accurate. To run the HC Hangup Test, press Standby>Menu>HC Hangup Test>Select on the main unit. Put the probe in fresh air and wait for the test to end. Be aware that this test can take from 15-30 minutes to complete depending on the condition of the filters and the amount of buildup in the probe. Once finished, exit back to the main screen.
===Calibration===
# Press Standby>Menu>Gas Calibration>Select on the main unit
# The Horiba will run the zero calibration
# The O2 screen will pop up
# Connect the gas cylinder
# Enter the value for the desired gas (found on gas cylinder label)
# Once the reading has settled press CAL, then Next
# Repeat steps 5 and 6 for each gas
# Remove the gas cylinder and replace the inlet cap
# Press the “MEAS” button to see real time values of the gases and press the refresh button to change which gases are displayed on the unit.
===Testing===
# Press “MEAS” on the main unit
# Turn on the computer on the bottom of the emissions cart
# Wake up the monitor in the observation room (Second monitor from the left)
# Log in and open the MEXA-584L software from the desktop
# Click on “MEAS” in the software and begin testing
# Read off the emissions values at desired engine points
# Be sure that the HC reading has settled before reading it off
How to Use Counterbores

== Description ==
A counter-bored hole has two diameters; a large diameter that is big enough to fit the screw head and the smaller diameter houses the shaft of the screw.
Benefits of having a counter-bored hole are:
•	A smooth, clean surface is sustained when a large fastener is needed
•	A counter-bored hole allows for a part to be fit into tight clearances without needing the extra room of a bolt head
==Safety==
•	A short-sleeved shirt, long pants, closed toed shoes and eye protection are required while operating machinery. 
•	An operator should not wear gloves or jewelry.
== Steps to Using a Counterbore ==
	Set-up
	1. Select the desired screw size.
	2. Determine the proper pilot drill bit and counterbore bit size from Table 1.
	Counterbores are located in the fifth drawer down in Cabinet #3. Pilot drill bits are located on-top of Cabinet #3.
	Counterbores are located on the left side of the drawer next to the center drills.
	4. Inspect drill bit and counterbore for jagged or broken edge - Seek mentor if broken or jagged.
 Purchasing new bits: 
 Msc:
 1-800-645-7270 
 www.mscdirect.com
 McMaster:
 1-562-692-5911
 www.mcmaster.com
 
	Procedure
	5. With proper drill bit selected, drill through hole to pilot size, oil liberally.
	6. Mount counterbore in mill, drill press, or lathe and adjust speed according to Speed Chart. Select head depth to screw size using Table 1.
Note: These are suggested starting speeds, not necessarily the correct speeds.
	7. Cut counterbore to head depth indicated in Table 1, oil adequately.
	8. Remove any chips or burrs caused from counterboring. This can be done with a deburring tool or a chamfer bit.
	9. Insert the screw into the hole to ensure a proper fit.
Junicon

The goal of the project is to develop a Java-based interpreter for the Unicon programming Language, allowing the Unicon language to be more portable and benefit from Java's facilities for concurrency and graphics.
=Problem Definition=
==Background==
The Unicon language is a dynamic object-oriented language that descends from Icon. The Junicon parse-interpreter was originally designed and developed by Peter Mills. Junicon was not a Unicon-complete language, meaning that it was still missing some major Unicon built-in utilities and features. 
==Deliverables==
A unicon-complete (or nearly complete) Junicon compiler.
==Specifications==
The Junicon Compiler should run on the latest Java version to date, and support the basic Unicon syntax. 
=Design Considerations=
=Project Learning=
=Final Design=
=Validation=
=Team Members=
left 	Jacob Alderink
Major: Computer Science
Hometown: Coeur d'Alene 
Responsibility: Developer 
Email:alde1873@vandals.uidaho.edu	left	Drew Stevens
Major: Computer Science
Hometown:Boise
Responsibility:Developer 
Email: stev8673@vandals.uidaho.edu
thumb|left	Zane Durkin
Major: Computer Science
Hometown:Twin Falls
Responsibility:Developer, Wiki Master 
Email: durk7832@vandals.uidaho.edu	 	
=Additional Documentation=
Project Schedule
File:
Meeting Minutes
File:
File:
File:
Presentations
File:
File:
Keithley 3390

300x400px|thumb|Keithley 3390
A function generator is a piece of equipment used to generate electrical waveforms, in the form of a time-varying voltage. Different types of waveforms can be generated over a range of frequencies. Common waveforms include sine, square, triangle and sawtooth waves. Other repeating waves, as well as arbitrary waves and noise can also be generated. A function generator is commonly used to simulate input signals used to test or develop equipment or circuits. It can also be used for calibrating test equipment such as oscilloscopes.
This model only has one output channel, but is capable of producing frequencies up to 50MHz. There is no external frequency counter feature on this model.
== Availability ==
Two function generator models are available in the ME 330 lab including the Tektronix AFG1022.
For more information on how to access or check out this machine for course projects contact:
Lab Supervisor: Ankit Gupta 
E-mail: ankitg@uidaho.edu
==Front Panel And Interface==
==User Manual & Data Sheet==
KickShot

The goal for this project is to create a Junior level version of KickShot to the Android OS.
== Sponsor ==
Aziz Makhani:
: local youth and adult soccer referee.
== Problem Definition ==
=== Background ===
KickShot the board game was invented by Aziz Makhani to help educate children of all ages about the rules of soccer. Aziz has requested that the board game be translated to an Android application. This semester (Spring 2014) will be the forth semester that this project has been undertaken by students in the Computer Science department. The difference between this project and the past semester project is that we are doing a version of KickShot Junior while they were attempting to implement a version of KickShot WarmUp.
=== Problem Statement ===
To create and deliver an Android Application that successfully epitomizes the gameplay of KickShot Junior
=== Target Specifications ===
Android 4.3 (Jelly Bean) and previous
=== Goals for this semester ===
80% of the KickShot Junior has been done at the last semester, but it takes more time to finish another 20%. For this semester, we aimed to add animations, sounds, new main menu layout, and other specific details, which helps players make more sense on what they get when playing. We want to make the game looks nice and more professional. After finishing the junior level, we will publish it to the google store.
What's more, we will try to have as many as possible design work on KickShot Warmup.
=== What we have done ===
Most of the animations, half of the sounds, most of the menu layouts, most of the user experience. 
=== What are still in process ===
For Junior, we need to fix the location of the ball, need a new, better dice rolling animation, get rest of the sounds working.
== Team: Red Card Dev == 
Jordan Leithart:
:Jordan is a Senior majoring in Computer Science, with fields of interest in computer game programming, artificial intelligence, computer graphics, tools engineering.
Robert Kleffner:
:Robert is a Junior majoring in Computer Science.
Tao Zhang:
:Tao is a Junior majoring in Computer Science, interested with computer game programming.
Category:Capstone Design
Kinect Shoulder Detection

NOTE: This project is under an additional NDA under TECNALIA. Release of all information is not available.
The Kinect Shoulder Detection project aims at developing software to be used in detecting and storing shoulder and torso position with accuracy and precision. The position data will be stored in an external database for patient records and analysis.
== Problem Statement ==
Currently the ArmAssist system being used for therapy does not track torso or shoulder movement while a patient is using the rehab station. If the patient were to not be monitored while using the ArmAssist station, they could potentially cheat and hinder their therapy.
== Summary of System Design ==
Summary of System Design
This document lays out the minimum requirements expected of our team from the customer.
== Shoulder Detection Program (SDP) ==
:The following features are a must to solve the problem statement.
::*Calibration to gather base data to be used when calculating an acceptable range of movement for the user.
::*Collection of data during run-time relating to a specified shoulder as well as the torso to improve accuracy and precision in measurements.
::*Storage of x, y, and z positional coordinates for all multiple tracking points during run-time that are recorded for each frame captured.
== Kinect Fusion ==
Kinect Fusion
This document lays out research done into the Kinect Fusion abilities of the Kinect. This function of the Kinect would be used to create a 3D model of what the Kinect sees and create a grid off of that so we can get information about the patient AND the ArmAssist station.
== Kinect Data Point Testing ==
Kinect Data Point Testing
This document lays out research done into the Kinect's Data Points and what the returned values from the Kinect really mean. Most of the information is provided by Microsoft but for completeness and to give more than just a general overview, we tested every coordinate plane and observed our results.
== Group Members ==
This project was complete on 12/13/13 by Alex Cochrane and Brett Papineau
Lab Instrumentation

== Introduction ==
This page contains information on the lab instrumentation available for ME 330 and Senior design projects. Additional equipment including analog oscilloscopes are also available. Equipment may be checked out for course projects only.
== Function Generators: ==
Tektronix AFG1022
Keithley 3390
== Power Supplies: ==
Agilent E3631A 
== Multimeters: ==
HP 34401A 
Fluke 8842A 
== Oscilloscopes: ==
Tektronix TBS 1052B-EDU
Labview (for data acquisition)

LabVIEW is a graphical coding software that is used with the dilution tunnel for data acquisition. This tutorial walks through setting up and calibrating the dilution tunnel’s LabVIEW file, but if you want to learn more about LabVIEW itself there are some very helpful videos at National Instruments’ website
==Setup==
To start, turn on the data acquisition unit and computer on bottom of the emissions cart. On the middle monitor in the observation room, log into the ME 430 user. Open the LabVIEW software from the desktop, then open Dilution_tunnel.vi (shown above). This is the main screen that you will keep open during testing. It displays data coming from the TEOM, the Dilution Tunnel, and the Horiba gas analyzer, as well as a status and error section. Each section has its own separate code, excepting the error section, which draws from the other three codes.
==Calibration==
To ensure that Dilution_tunnel.vi is displaying the correct data, each of the three codes it reads data from must be calibrated. This calibration involves updating the gain and bias constants of the sensors. The Gain constant is found by dividing the full measurement by the full voltage. For example, a 0-100 psia pressure sensor with a 0-5 V output would have a gain of 20 (100/5). Once gain is established, bias can be found by measuring the signal at zero output, then adjusting the bias until the sensor reads zero. Once the constants are set, LabVIEW will read the output voltage from the sensor, then multiply by the gain, and then subtract the bias to get the final measurement. Recalibration is not necessary every time you test, but over time the sensors will “drift” and need recalibration.
==LabVIEW Interfaces==
===Dilution_tunnel.vi===
===Horiba_5gas.vi===
===dilution.vi===
===teom.vi===
Large Project Garage (HEV Shop)

HEV Work Area (Large Project Garage) GJ 120 
== Safety Procedures for HEV Shop ==
=== General Safety (working in pairs) ===
* When working on equipment in the HEV shop, there must be at least two people present. Keep work areas clean, and unused tools put away in their place. Avoid unnecessary tripping hazards on the ground (cords, hoses, tools, etc).
=== Chemicals ===
* Use eye and skin protection when dealing with hazardous chemicals. Keep chemicals in the chemical cabinet, call UI environmental Heath and safety at 885-6524.
* Fuel and flammable chemicals must be stored in the cabinet. Fuel must be in a metal ‘safety can’.
* Used oil and antifreeze should be drained in the storage containers on the west end of the engine bay.
=== Eye protection ===
* When working under vehicles, or any time there is danger of flying material (hammering, compressed air, etc.) eye protection must be worn.
=== Exhaust fumes ===
* When running an engine, or creating fumes (welding, etc.) position the fume hood so that it will minimize polluting the air in the shop.
=== Jacking vehicals ===
* Make sure jack capacity is adequate for the job. Lift off of designed lift points, or directly on the flat part of vehicle frame/suspension. Let others know when the vehicle is being lifted. Absolutely no one should be underneath the vehicle while being raised until it is supported with safety stands.
=== Vehicle on jack stands ===
* If only raising one side of vehicle, place stands on each end of that side.
* Rope off vehicles on jack stands with danger tape.
=== Electrical ===
* Rope off unused electrical components with danger tape.
* Use electrical tape to cover unused ends of tools.
== Contacts ==
: UI environmental Heath and safety: 885-6524
: Patrick Paulus (CSC): paul2217@vandals.uidaho.edu
: Dan Cordon: dcoron@uidaho.edu
MAHIVE Hub

The goal of the project is.................................
=Problem Definition=
==Background==
I am batman
==Deliverables==
==Specifications==
=Design Considerations=
=Project Learning=
=Final Design=
=Validation=
=Team Members=
left 	
Major: 
Hometown: 
Responsibility: 
Email:	left	
Major: 
Hometown:
Responsibility: 
Email:
thumb|left	
Major:
Hometown:
Responsibility: 
Email:	 	
=Additional Documentation=
Project Schedule
File:
Meeting Minutes
File:
File:
File:
File:
File:
File:
File:
Presentations
File:
File:
File:
File:
Client Interview
File:
ME Shop & Labs

== ME Shops and Labs ==
: GJ 108 - Senior Design Suite
: GJ 114 - ME CAD Lab
: GJ 115 - IdeaWorks (Advanced CAD lab)
: GJ 120 - Large Project Garage (HEV Work Area)
:: link to Large Project Garage (HEV Shop) page
=== ME Shops and CAD Hours for the Academic year ===
: Monday - Thursday 8:00 AM to 10:30 PM
: Friday 8:00 AM to 5:00 PM
: Saturday Closed
: Sunday 5:00 PM to 10:30 PM