Trajectory 2010 Dennis Papesh

Slides:



Advertisements
Similar presentations
T. Trimpe Junk Box Wars Super Slingers T. Trimpe
Advertisements

Science Olympiad Summer Institute Phoenix, AZ July , 2013.
Battery Buggy Rules – Div B Chris Ganley Materials Adapted from Presentation prepared by Mike Johnson 1.
The local sport FUTSAL Comenius Project ACTIVE SPORTIVE HEALTHY EUROPEAN YOUTH TEAM.
NC Science Olympiad Coaches Institute. Trajectory Division B & C.
CeAnn Chalker Towers B & C – CeAnn Chalker
SCIENCE OLYMPIAD Wright Stuff – B
Highlight & place your title here Highlight & write in your name here Holy Sepulcher Catholic School Grade ? Use the Student Guide to the HSS PJAS Presentation.
How to view this Slide Show Each slide will build itself with no assistance Push the down arrow key on your computer to advance to the next slide I recommend.
CeAnn Chalker * This presentation was prepared using draft rules. There may be some changes in the final copy of the rules. The rules.
Trajeggtory. Teams of up to 2, will build in advance, a device constructed out of specified materials to protect a raw egg from breaking when tossed horizontally.
Bungee Drop 2015 Supervisor preparation DRAFT – revised 26 Sept 2014.
Bottle Rockets - B CeAnn Chalker
SCIENCE OLYMPIAD Elevated Bridge Div. B - C CeAnn Chalker
Coaches’ & Players’ Rules Introduction Based on the IKF Rules July 2012 Written by Sam Billington.
SCIENCE OLYMPIAD Elevated Bridge Div. B - C CeAnn Chalker
Pasta Towers. The Challenge Teams of up to 2 will design and build the lightest pasta tower with the highest structural efficiency, capable of supporting.
2007 NFHS Track and Field Rules Interpretation Meeting A Brief Overview of The Discus Throw Event.
BATTERY BUGGY Mike Johnson. LAY PERSON’S EVENT DESCRIPTION: Teams will construct a battery-powered vehicle that: moves as fast as humanly possible, and…
'09 Scrambler 2009# 1 SCRAMBLER!. '08 Scrambler 2009# 2 Scrambler '09 Dennis Papesh & Bro. Nigel (Former) National Event Supervisor (of this event)
Robo-Cross Dennis R. Papesh
Helicopters– C Matthew Chalker & CeAnn Chalker and
SOSI 2013 CeAnn Chalker Matthew Chalker
Build a catapult to launch a marshmallow at a target
Presented: October 24 th, 2009 A Look at: Mousetrap Vehicle Out and Back.
SCIENCE OLYMPIAD SUMMER INSTITUTE CEANN CHALKER DENNIS PAPESH 1 Junkyard Challenge.
TOOL: Radial Arm Saw NEXT STEP: Radial Arm Saw RESULTS: Finish Top Apron Pieces at 9” L x 4” W x ¾ “ Th PROJECT Square Plant Stand PART Top Apron # NEEDED.
Trajectory ‘08 Dennis Papesh
Basic Information Description: Prior to the competition teams must design, build, document and test one robotic device to move scoreable items. How many.
Virginia Science Olympiad: BUILDING EVENTS Div C.
Science Olympiad Summer Institute 1 Presented by Dennis Papesh
Advanced Phys. Ed. Tennis Notes General Info. Tennis can be played with wither two or four players. Points are scored by serving and placing the ball.
Virginia Science Olympiad: BUILDING EVENTS DIV B.
Warmup: (Far Side) 1)Turn in your permission forms to the yellow box in front of the room. 2)Open up to “Paper Platforms.” 3)The next section is “Evaluate.
Golf Terms Addressing the Ball Taking a stance and grounding the club(except in a hazard)
PASTA TOWERS. GOAL—Build the most efficient tower.
Rule 8: FREE THROW BALL AT THE DISPOSAL The ball shall be bounced to the free thrower or it shall be placed on the floor at the free throw line.
Robo - Cross Students will design and build a robot to collect items on a playing field, move them from one zone of the playing field to another, and.
Virginia Science Olympiad: BUILDING EVENTS Div C.
Trajectory New York State Coaches Clinic October th 2009 Fishkill, New York.
Bloomington North Women’s Soccer ‘Technical Tests’
TENNESSEE SCIENCE OLYMPIAD 2014 Science Olympiad Coaches Workshop University of Tennessee October 12, 2013 Betsy White  Elastic Launched.
By Mr. Schmidt Bowling. Bowling Etiquette Tip #1 – Observe the foul line at all times. Tip #2 – Be ready to bowl when it is your turn. Tip #3 – Don’t.
Air Trajectory (2015) Dennis Papesh 1.
Science Olympiad 2011 Coaches Clinic Division B Justine Cromer, Instructor.
NYSGBOA Rule Changes, Subtitle. Rule 9-10, Ten Second Backcourt No visual count. Use the shot clock. If no shot clock, use a visual count. Trail.
M. Nelson, 21 Mar NorthWest Louisiana Autonomous Robotics Competition (NWLA-ARC) 2 Challenges – 4 Bottle Race – Board Challenge Awards for Event.
Egr 102 Final Design Project. Catapult Design Goals: – Shoot a ping pong ball exactly cm (measured from the front of the catapult) – Score based.
WHS Physics Olympics. What is it? You will compete in 8 events (4 in the fall, and 4 in the spring) over the course of the year. Most events involve you.
Scrambler 2016.
MOUSETRAP VEHICLE OUT AND BACK Mike Johnson. LAY PERSON’S EVENT DESCRIPTION: Teams will construct a mousetrap-powered vehicle that: moves as fast as humanly.
1 Westwood Catapults 2014 Elliot Rose March 19, 2014
Physics Olympics Event 3 Is………... Trebuchet counterweight swingarm sling Sturdy base.
Hovercraft b & c 2017.
How to Hollow out a box in Tinker Cad
Scrambler 2017.
ROBOT ARM 2017 Rules Rachel Mason.
INDIVIDUAL TRAINING SESSION 2016
Roller Coaster SOSI Patrick Chalker
Catapult Project.
Dennis Papesh Air Trajectory (2016) Dennis Papesh
Basketball Official Rules
Loading Sand (cont.) Using Sand Hopper:
Measuring how the light from a torch changes with distance
Science Olympiad Summer Institute
Mystery Architecture Robert C Fisler Elemtary Science Olympiad All Grades Event March 16th, 2019.
Simple/Compound Machines
Gravity Vehicle San Diego Regional.
Ping Pong Parachute San Diego Regional.
Presentation transcript:

Trajectory 2010 Dennis Papesh

Goal The team will design, construct, calibrate, and shoot a device capable of launching a ball into a target area, and collect data to develop a series of graphs relating launch configuration to target distance and height. 2

Parameters  Prior to competition, students are to develop and use performance data and calibrations charts to assist in determining the best launch parameters given different distances and heights. 3

Possible Changes  Eye protection – ANSI Z87+  Must fit in cube, in launch configuration, prior to all launches  Cube size will be reduced  Ability to launch from side of device  Triggering device must pose no danger 4

Possible Changes  Height interval will be reduced  Submission of 4 different graphs  May be required to turn graphs in early, electronically  Graph format may be specified for electronic submission 5

Possible Changes  One graph may be selected for grading  Selection choice by event supervisor  Graph score may be multiplied by 4 6

Parameters  Launch devices, copies of graphs, and all materials teams will use (other than goggles) are to be impounded.  Target distances and heights will not be announced until all devices have been impounded. 7

Parameters  Eye protection rated ANSI Z87+ must be worn by participants during building, testing, and launching.  See /protection  Event supervisors may disqualify any apparatus that is operated in an unsafe manner. 8

Construction  Launching force must be supplied by non- metallic elastic solids such as rubber bands, bungie cords, etc.  Must be triggered from outside of the launching area. Radio controlled triggering devices are not permitted but battery triggered devices are allowed. 9

Construction  The launching device, in launch configuration, must fit within an 70.0 cm cube for Div. B, 60.0 cm cube for Div. C prior to all launches.  Any weights used to stabilize the device must be within the respective cube. 10

Construction  Teams must make provision to trigger the device in a limited space behind and on both sides of the launch area (50 cm minimum).  Easy, light pull trigger  Perhaps an eyebolt, through which string feeds to trigger can be pulled from either side 11

Construction  Teams will provide a projectile that shall be any unmodified tennis ball, racquet ball, ping pong ball, or plastic practice golf balls (wiffle or dimpled type) (labeling is permitted). Hackie Sacks not permitted.  Teams are not required to use the same projectile for every launch. 12

Construction  The triggering device is not considered part of the device. It must extend out of the launch area and does not need to return to the launch area after the launch.  Students must be outside the launch area while triggering the device and may touch only the part of the triggering device that extends outside of the launch area. 13

Construction The triggering device must not pose a danger to other competitors or spectators due to flying parts or excessive movement outside of the launch area. 14

Competition  Students will place the device in a launch box 1 meter wide (perpendicular to the launch direction) and 1.5 m deep, designated by tape on the floor.  Once teams are in the event area, they may not leave or receive outside assistance, materials, or communi- cations. DQ 15

Competition  Students may not touch or hold the device, or be in the launch area, or the area in front of the line that marks the front edge of the launch area. 16

Competition  Before and after a shot, all parts of the device must be within the launch area.  If any part of the device extends outside of the launch area during a launch, it must return to and remain in the launch area without assistance of the participants. 17

Competition  Two target areas will be placed in a straight line in front of the launch area.  Each target will be an approximately 1 meter square box or a 1 meter diameter circle.  Each will contain sand or cat litter to mark the impact area.  Custodians prefer cat litter 18

Competition  The center of the target areas will be marked so that the distance between the center of the initial projectile impact location and the center of the target may be measured. 19

Competition  The center of the target areas will be placed between 2 and 8 meters (Div. B) or between 2 and 10 meters (Div. C) from the front of the launching area (in 1.0 meter intervals for Regional, ½ meter intervals for State, and 10.0 cm intervals for National.  The centers of the two targets must be separated by at least 2 meters. 20

Competition  The target areas will be at two different levels with the higher target being nearer to the launch area.  The higher target will be measured in 1.0 cm intervals above the floor, up to one meter for Division B; up to 2.0 meters in Division C. 21

Competition  The farther target shall be at floor level.  The height of the target will be measured from the floor to the top surface of the 1.0 cm deep impact area. 22

Competition  No practices shots will be allowed but adjustments may be made to the launching device between shots. 23

Competition - Bonus  The ES will make provisions to place a bucket on the course if requested for a Bucket Shot.  The bucket will be a size chosen by the ES and placed anywhere on the course between stipulated course lengths.  The bucket may be placed up to 2.0 m to the right or left of the center line. 24

Competition - Bonus After impound, the distance to the center of the bucket and the distance off the center line will be announced. The size of the bucket will then also be disclosed. The bucket will be placed in the same location for all competitors requesting a Bucket Shot. 25

Competition - Bonus The bucket should only be on the course when requested so as not to become an obstacle for other shots. 26

Typical lane set-up Launch area 2m from line 8m from line Near target Far target either/or Device 27

Typical lane set-up 28

Competition  Each team will have 10 minutes at Regionals and State, 8 minutes at National to place the launching device in the launch area, check the launch distances, and complete 2 shots at each of the target areas.  The time for measurement of the device or projectile impact will not be included in the allotted minutes. 29

Competition  No practice shots will be allowed but adjustments may be made to the launching device between shots.  Teams must inform the event supervisor before each launch and indicate at which target they are aiming. 30

Competition  After each launch, the ES will indicate to the students when they may approach the target to make measurements to calibrate their device.  Students may not touch either target. 31

Competition - Bonus  If the projectile hits the pin in the center of the target on the first shot at the target, they may request a Bucket Shot for bonus points.  The team will receive either -50 bonus points for their projectile hitting the bucket at first impact and bouncing away or -100 points for having it land inside the bucket at first impact and remaining there. 32

Competition - Bonus  No bonus points will be scored for missing the bucket.  The bucket shot is not an extra shot as it replaces the second shot at the target.  Any team that requests the Bucket Shot will not have a second shot to use as a 3 rd or 4 th tie breaker. 33

Competition - Bonus  In the case where this is required, the team that took the Bucket Shot will be scored behind the team with which they are tied. 34

Penalties – 100 points apiece Student is warned for not properly wearing eye protection. A participant is in the launch or target area when the launch is triggered No warning given prior to a launch. (Such launch, even if unintended, shall count as one of the four allowed launches.) 35

Penalties – cont’d  Any part of the device is outside of the 1 meter by 1.5 meter launch area prior to or after a launch.  Perhaps students can set their device a definite distance back from line in case it moves forward on launch.  Students will be informed of a penalty they have received before the next launch. 36

Scoring  The winner will be the team with the lowest Final Score.  Final Score = lower Close Target Area Score + lower Far Target Area Score + Graph Score + Penalties + Bonus (if any) 37

Close Target Area Score  It shall be the distance in mm from the center of the initial projectile impact location to the center of the target area.  Teams who miss the target area will score 800 mm for that shot. 38

Far Target Area Score  It shall be measured similarly for a hit in the target area but measured to the impact location if outside the target area.  Supervisor(s) will visually note and mark the observed impact location outside the target area, then measure the distance in mm. 39

Far Target Area Score  If the device fails to launch due to breakdown or other reason, score for launch will be the distance from the front of the launch area to the center of the far target in mm. 40

Far Target Area Scores  If the announced target area is the farther target but the projectile hits the nearer target, the score will be a straight line measured distance between the impact location and the center of the farther target. 41

Graphs  Each team starts with 400 graph points, which can be reduced by turning in 4 different graphs and data tables.  This data may be required to be turned in by a selected date prior to the event, or at impound, as determined by the event supervisor. 42

Graphs  Supervisors will specify what format is to be used when graphs are to be submitted electronically.  Each of the 4 selected graphs may reduce the Graph Score by 100 points.  Any number of graphs may be impounded but students must indicate which 4 will be used to determine the graph score. 43

Graphs continued  Failure to indicate which graphs to score will result in one of the 1 st four graphs being scored.  Graphs and tables may be computer generated or hand drawn but must be on separate sheets of paper and each pair must be on the same side of the paper.  If drawn by hand, they must be drawn on graph paper.  Data tables must accompany graphs. 44

Graphs continued  Graphs and tables must be properly labeled.  All variables and units must be identified.  Each sheet of paper must be identified with the team name.  One of the 4 graphs, selected by the event supervisor, at their discretion, will be scored as follows: 45

Graph Scoring per graph  20 point reduction for completed data table  20 point reduction for graph  20 point reduction if graph matches data table  40 point reduction for graph being properly labeled (title, x & y variables, increments with units, team name)  Partial credit may be given 46

Graphs  The score of the scored graph will be multiplied by the number of graphs turned in (up to four). 47

Scoring Example Lower Close Target Area Score = 10 mm Lower Far Target Area Score = 1487 mm Graph Score = 150 Penalties = 100 Bonus = 0 Final Score = =

Ranking (tiers)  1 st Tier – Teams whose devices meet all specifications.  2 nd Tier – Teams whose devices do not meet specifications listed in 3.a, 3.b, 3.c, and/or 3.d 49

Tie Breakers  1 st – smallest distance in measurements between the two scored shots (to reward consistency)  2 nd – closer of the two scored shots to center of target area 50

Devices 51

More devices 52

Typical device upright Elastic material Launch arm stopper trigger Maximum of 80 cm Max. 80 cm 53

Areas to experiment  Launch arm – having several holes will allow students to determine the proper ratio of effort force to launch force.  Upright – having several holes will allow students to experiment with launch arm height.  Upright – being able to move it on the base will allow for experimentation. 54

Areas to experiment  Trigger – something simple, free from jamming, and operates without the need to jerk anything too hard.  Non-metallic elastic material – rubber bands? Bungie cords? The material they use to restrict the flow of blood for a blood draw? Plenty of room for experimentation. 55

Areas to experiment  Stopper – having a series of holes will allow students to determine the proper height for the launch arm to stop moving.  Length of throwing arm.  Distance throwing arm drawn down or back. 56

Reminder  It is up to the students to design, construct, test, and calibrate the device.  ‘nuf said on that 57