Difference between revisions of "Digital Structures"

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{{Incomplete}}
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{{Outdated|description=This page needs to be updated to reflect new information from the 2022 [[Rules Manual|rules]].}}
{{About|a replacement event for that might not be run at every tournament. Please refer to instructions from your particular tournament before preparing for this event|the event it replaces|Boomilever}}
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{{About|a replacement event for that might not be run at every tournament. Please refer to instructions from your particular tournament before preparing for this event|the event it replaces|Boomilever|a guide to supervising the event|Digital Structures/Supervising}}
{{EventLinksBox
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{{Infobox event
    | active      = yes
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|imageID=47
 
     | type        = Engineering
 
     | type        = Engineering
 
     | cat        = Build
 
     | cat        = Build
 +
    | description =Teams will design and test a Bridge using SkyCiv structural analysis software that meets requirements specified in these rules to achieve the highest structural efficiency while withstanding multiple vertical and lateral loads.
 
     | 2021thread  = [https://scioly.org/forums/viewtopic.php?f=283&t=18697 2021]
 
     | 2021thread  = [https://scioly.org/forums/viewtopic.php?f=283&t=18697 2021]
     | WebsiteB    = https://www.soinc.org/learn/trial-events
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     | 2022thread  = [https://scioly.org/forums/viewtopic.php?f=384&t=23476 2022]
     | WebsiteC    = https://www.soinc.org/learn/trial-events
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     | 2023thread  = [https://scioly.org/forums/viewtopic.php?t=26039 2023]
}}
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    | imageid    = 47
'''Digital Structures''' is a simulated building event that may replace [[Boomilever]] for some [[2020-2021 Tournament Formats|tournament formats]] during the [[2021]] season. For this event, students will use SkyCiv structural analysis software to design and test (in simulation) a Boomilever that meets construction requirements outlined in the rules. This event was first run at [[BEARSO]] Invitational under the name ''Computilever''.
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    | 1stBName  = Clarksville Middle School
 +
    | 2ndBName  = Redmond Middle School
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    | 3rdBName  = Sierra Vista Middle School
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    | 1stCName  = Marquette University High School
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    | 2ndCName  = Seven Lakes High School
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    | 3rdCName  = Troy High School|participants=2|eventtime=45 minutes|resources=* One Class II Calculator (per participant)
 +
* unmarked scratch paper|active=yes}}
 +
'''Digital Structures''' is a simulated building event that may replace [[Boomilever]] for some [[2020-2021 Tournament Formats|tournament formats]] during the [[2021]] season. For this event, students will use [[SkyCiv]] structural analysis software to design and test (in simulation) a Boomilever that meets construction requirements outlined in the rules. This event was first run at [[BEARSO]] Invitational under the name ''Computilever''.
  
==Event Summary==
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== Event Summary ==
  
 
[[File:Digital-structures sample-device.png|300px|thumb|left|A sample Boomilever designed in SkyCiv.]]
 
[[File:Digital-structures sample-device.png|300px|thumb|left|A sample Boomilever designed in SkyCiv.]]
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The idea of this event is very similar to the [[Boomilever]] event it replaces. However, in this event the Testing Wall is defined by a geometric plane, the Mounting Hook is defined by a 3D Pin Support, the sticks of the Boomilever are defined by nodes and members, and the weight from a bucket and sand is simulated with an Area Load.
 
The idea of this event is very similar to the [[Boomilever]] event it replaces. However, in this event the Testing Wall is defined by a geometric plane, the Mounting Hook is defined by a 3D Pin Support, the sticks of the Boomilever are defined by nodes and members, and the weight from a bucket and sand is simulated with an Area Load.
  
The geometric plane that defines the Testing Wall is the ''yz''-plane, and the entire Boomilever must lie on its non-negative-''x'' side. The Mounting Hook is a "3D Pin Support" at the origin. The load applied to the Boomilever is in the negative ''y''-direction over a 5.0 cm by 5.0 cm rectangular Area Load defined by its corners with nodes that are called Loading Points.  
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The geometric plane that defines the Testing Wall is the ''yz''-plane, and the entire Boomilever must lie on its non-negative-''x'' side. The Mounting Hook is a "3D Pin Support" at the origin. The load applied to the Boomilever is in the negative ''y''-direction over a 5.0 cm by 5.0 cm rectangular Area Load defined by its corners with nodes that are called Loading Points.
  
There are two unknown specifications that are not shared with teams until the competition. These are ''minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall'' and ''the distance from the origin to the Contact Width Lines''. The minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall will be 20.0-45.0 cm from the Testing Wall in the positive x-direction. The Contact Width Lines, two imaginary vertical lines parallel to and symmetric about the ''y''-axis, will be 3.0-7.0 cm from the origin in the positive and negative ''z''-directions.
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There are two unknown specifications that are not shared with teams until the competition. These are ''minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall'' and ''the distance from the origin to the Contact Width Lines''. The minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall will be 20.0-45.0 cm from the Testing Wall in the positive x-direction. The Contact Width Lines, two imaginary vertical lines parallel to and symmetric about the ''y''-axis, will be 3.0-7.0 cm from the origin in the positive and negative ''z''-directions.
  
 
The Contact Depth Line, an imaginary horizontal line parallel to the z-axis, is 20.0 cm (Division B) or 15.0 cm (Division C) from the origin in the negative ''y''-direction. The Boomilever may not touch between the Contact Width Lines or below the Contact Depth Line.
 
The Contact Depth Line, an imaginary horizontal line parallel to the z-axis, is 20.0 cm (Division B) or 15.0 cm (Division C) from the origin in the negative ''y''-direction. The Boomilever may not touch between the Contact Width Lines or below the Contact Depth Line.
  
==Software==
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== Software ==
 +
{{Main|SkyCiv}}
 +
The software used for this event is SkyCiv with the Science Olympiad add-on (available as an add-on within the software). SkyCiv provides the functionality for adding nodes, members, materials, and loads, while The Science Olympiad add-on limits materials to 3 varieties of balsa woods, limits number of times students can test their device to 5 times, checks for construction violations, and submits design files to tournament officials during the competition. '''Please see the page on [[SkyCiv]] for an introduction and tutorial to the software.'''
  
The software used for this event is SkyCiv with the Science Olympiad app (available as an add-on within the software). SkyCiv provides the functionality for adding nodes, members, materials, and loads, while The Science Olympiad app limits materials to a few varieties of balsa woods, limits number of times students can test their device, checks for construction violations, and submits design files to tournament officials during the competition.
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== Competition ==
  
==Competition==
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At the competition, the Event Supervisor will tell students the values determined for ''minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall'' and ''the distance from the origin to the Contact Width Lines''. Students will then estimate the load their Boomilever will support (Estimated Load Supported) and have 45 minutes to build and test their Boomilever up to 5 times in SkyCiv. SkyCiv will record construction parameters and calculate the scores for each device.
  
At the competition, the Event Supervisor will tell students the values determined for ''minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall'' and ''the distance from the origin to the Contact Width Lines''. Students will then estimate the load their Boomilever will support (Estimated Load Supported) and have 45 minutes to build and test their Boomilever up to 5 times in SkyCiv. SkyCiv will assess for construction violations and calculate the scores for each device.
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== Scoring ==
  
==Scoring==
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Scoring for Digital Structures and the Boomilever event are very similar. In both events, score is calculated by dividing a ''Load Score'' by the ''Mass of the Boomilever'', where high score wins. The ''Load Score'' is the sum of the ''Load Supported by the Boomilever'' and the ''Bonus''. This ''Bonus'' is 5,000 g only if the ''Load Supported'' is 15,000 g. If the ''Load Supported''  is more than 15,000 g , the ''Load Supported''  will still be counted as 15,000 g , plus the ''Bonus of 5000 g''
 
 
Scoring for Digital Structures and the Boomilever event are very similar. In both events, score is calculated by dividing a ''Load Score'' by the ''Mass of the Boomilever'', where high score wins. The ''Load Score'' is the sum of the ''Load Supported by the Boomilever'' and the ''Bonus''. This ''Bonus'' is 5,000 g only if the ''Load Supported'' is 15,000 g.
 
  
 
:'''Score = [Load Supported (g) + Bonus] / Mass of Boomilever (g)'''
 
:'''Score = [Load Supported (g) + Bonus] / Mass of Boomilever (g)'''
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As this is an event in simulation, the ''Load Supported'' and ''Mass of Boomilever'' are both calculated by SkyCiv using the material properties of the balsa wood type selected by students in their design. The ''Load Supported'' is the load (in grams) applied to the Area Load at which any members of the Boomilever experience stress exceeding its parameters.
 
As this is an event in simulation, the ''Load Supported'' and ''Mass of Boomilever'' are both calculated by SkyCiv using the material properties of the balsa wood type selected by students in their design. The ''Load Supported'' is the load (in grams) applied to the Area Load at which any members of the Boomilever experience stress exceeding its parameters.
  
{{Technology and Engineering Event}}
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== Links ==
 +
[https://www.soinc.org/sites/default/files/uploaded_files/digital-structures-2021_diagram_v5.pdf Digital Structures Diagram]
 +
 
 +
[https://www.youtube.com/watch?v=yDYGt_hX09c Southern California Science Olympiad Digital Structures Tutorial]
 +
 
 +
[https://skyciv.com/olympiad/ Link to Purchase SkyCiv for Digital Structures]
 +
 
 +
[https://skyciv.com/education/how-to-design-a-boomilever/ SkyCiv Video on Boomilever Design]
 +
 
 +
[https://scioly.org/wiki/index.php/SkyCiv Science Olympiad Student Forum for SkyCiv]
 +
 
 +
[https://www.soinc.org/sites/default/files/uploaded_files/21DigitalStructuresBC2021EventScoresheetv2.xlsm Event Scoresheet]{{Technology and Engineering Event}}
 
{{2021Events}}
 
{{2021Events}}
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[[Category:Technology and Engineering Events]]
 
[[Category:Technology and Engineering Events]]
[[Category:Event Pages]]
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[[Category:Events]]
[[Category:Building Event Pages]]
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[[Category:Build events]]

Latest revision as of 07:25, 5 September 2023

This article is about a replacement event for that might not be run at every tournament. Please refer to instructions from your particular tournament before preparing for this event. For the event it replaces, see Boomilever. For a guide to supervising the event, see Digital Structures/Supervising.

Digital Structures is a simulated building event that may replace Boomilever for some tournament formats during the 2021 season. For this event, students will use SkyCiv structural analysis software to design and test (in simulation) a Boomilever that meets construction requirements outlined in the rules. This event was first run at BEARSO Invitational under the name Computilever.

Event Summary

A sample Boomilever designed in SkyCiv.

The idea of this event is very similar to the Boomilever event it replaces. However, in this event the Testing Wall is defined by a geometric plane, the Mounting Hook is defined by a 3D Pin Support, the sticks of the Boomilever are defined by nodes and members, and the weight from a bucket and sand is simulated with an Area Load.

The geometric plane that defines the Testing Wall is the yz-plane, and the entire Boomilever must lie on its non-negative-x side. The Mounting Hook is a "3D Pin Support" at the origin. The load applied to the Boomilever is in the negative y-direction over a 5.0 cm by 5.0 cm rectangular Area Load defined by its corners with nodes that are called Loading Points.

There are two unknown specifications that are not shared with teams until the competition. These are minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall and the distance from the origin to the Contact Width Lines. The minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall will be 20.0-45.0 cm from the Testing Wall in the positive x-direction. The Contact Width Lines, two imaginary vertical lines parallel to and symmetric about the y-axis, will be 3.0-7.0 cm from the origin in the positive and negative z-directions.

The Contact Depth Line, an imaginary horizontal line parallel to the z-axis, is 20.0 cm (Division B) or 15.0 cm (Division C) from the origin in the negative y-direction. The Boomilever may not touch between the Contact Width Lines or below the Contact Depth Line.

Software

Main article: SkyCiv

The software used for this event is SkyCiv with the Science Olympiad add-on (available as an add-on within the software). SkyCiv provides the functionality for adding nodes, members, materials, and loads, while The Science Olympiad add-on limits materials to 3 varieties of balsa woods, limits number of times students can test their device to 5 times, checks for construction violations, and submits design files to tournament officials during the competition. Please see the page on SkyCiv for an introduction and tutorial to the software.

Competition

At the competition, the Event Supervisor will tell students the values determined for minimum distance between the Testing Wall and the Loading Point closest to the Testing Wall and the distance from the origin to the Contact Width Lines. Students will then estimate the load their Boomilever will support (Estimated Load Supported) and have 45 minutes to build and test their Boomilever up to 5 times in SkyCiv. SkyCiv will record construction parameters and calculate the scores for each device.

Scoring

Scoring for Digital Structures and the Boomilever event are very similar. In both events, score is calculated by dividing a Load Score by the Mass of the Boomilever, where high score wins. The Load Score is the sum of the Load Supported by the Boomilever and the Bonus. This Bonus is 5,000 g only if the Load Supported is 15,000 g. If the Load Supported is more than 15,000 g , the Load Supported will still be counted as 15,000 g , plus the Bonus of 5000 g

Score = [Load Supported (g) + Bonus] / Mass of Boomilever (g)

As this is an event in simulation, the Load Supported and Mass of Boomilever are both calculated by SkyCiv using the material properties of the balsa wood type selected by students in their design. The Load Supported is the load (in grams) applied to the Area Load at which any members of the Boomilever experience stress exceeding its parameters.

Links

Digital Structures Diagram

Southern California Science Olympiad Digital Structures Tutorial

Link to Purchase SkyCiv for Digital Structures

SkyCiv Video on Boomilever Design

Science Olympiad Student Forum for SkyCiv

Event Scoresheet