2011:2011 Integration 1-22 - Revision history

Heydowns: 2011 Integration 1-22 moved to 2011:2011 Integration 1-22

2012-01-06T17:56:53Z

2011 Integration 1-22 moved to 2011:2011 Integration 1-22

← Older revision	Revision as of 09:56, 6 January 2012
(No difference)

Programming at 00:07, 26 January 2011

2011-01-26T00:07:47Z

← Older revision		Revision as of 16:07, 25 January 2011
Line 39:		Line 39:
	Need to determine positions of sensors and communicate to Electrical and Mechanical.		Need to determine positions of sensors and communicate to Electrical and Mechanical.

	<br>		<br>

	~~1-25-11~~

	~~'''Drivetrain'''~~

	~~Drivetrain is painted.~~

	~~<br>~~

	~~'''Arm/Manipulator'''~~

	Superstructure is being built in CAD.  List of "robot frame requirements" has been created, to document all the things that interface with the frame.  Need to add extra transmission and motor for the arm to the shopping list.  Manipulator now has a mounting plate in CAD.

	~~<br>~~

	~~'''Minibot/Deployer'''~~

	New lightweight slides about 30" long are being made for the deployer - two tracks about 6" apart.  Driven by surgical tubing (will need a long length with a pulley to keep from overstretching the tubing).  Need to control the force or the minibot will go flying!

	~~<br>~~

	~~'''Electrical Main'''~~

	US Digital encoders for arm mechanism.  This will require a reference "home spot."  Encoders on drivetrain also.  Need to communicate with Mechanical where to put battery - needs to be low down, but easy to access.<br>

	~~<br>~~

	~~'''Electrical Controls'''~~

	~~Parts are in!  Will start to lay things out by next week.  4 joysticks, a Classmate, and a billion buttons.  :)<br>~~

	~~<br>~~

	~~'''Programming~~

	~~Coding as much as possible at this point.  Have communicated sensor positions with Electrical/Mechanical.~~

Programming at 00:03, 26 January 2011

2011-01-26T00:03:56Z

← Older revision		Revision as of 16:03, 25 January 2011
Line 63:		Line 63:
	'''Electrical Main'''		'''Electrical Main'''

	US Digital encoders for arm mechanism.  This will require a reference "home spot."		US Digital encoders for arm mechanism.  This will require a reference "home spot."  Encoders on drivetrain also.  Need to communicate with Mechanical where to put battery - needs to be low down, but easy to access.<br>


			<br>

	'''Electrical Controls'''		'''Electrical Controls'''

			Parts are in!  Will start to lay things out by next week.  4 joysticks, a Classmate, and a billion buttons.  :)<br>

			<br>

			'''Programming

			Coding as much as possible at this point.  Have communicated sensor positions with Electrical/Mechanical.
	~~'''Programming'''~~

Programming at 23:57, 25 January 2011

2011-01-25T23:57:41Z

← Older revision		Revision as of 15:57, 25 January 2011
Line 39:		Line 39:
	Need to determine positions of sensors and communicate to Electrical and Mechanical.		Need to determine positions of sensors and communicate to Electrical and Mechanical.

			<br>

			1-25-11

	~~1-25-11~~		'''Drivetrain'''

	~~'''~~Drivetrain~~'''~~		Drivetrain is painted.

	~~Drivetrain is painted.~~		<br>

			'''Arm/Manipulator'''

			Superstructure is being built in CAD.  List of "robot frame requirements" has been created, to document all the things that interface with the frame.  Need to add extra transmission and motor for the arm to the shopping list.  Manipulator now has a mounting plate in CAD.

	~~'''Arm/Manipulator'''~~		<br>

	Superstructure is being built in CAD.  List of "robot frame requirements" has been created, to document all the things that interface with the frame.  Need to add extra transmission and motor for the arm to the shopping list.  Manipulator now has a mounting plate in CAD.		'''Minibot/Deployer'''

			New lightweight slides about 30" long are being made for the deployer - two tracks about 6" apart.  Driven by surgical tubing (will need a long length with a pulley to keep from overstretching the tubing).  Need to control the force or the minibot will go flying!

			<br>

	'''~~Minibot/Deployer~~'''		'''Electrical Main'''

	~~New lightweight slides about 30" long are being made~~ for ~~the deployer - two tracks about 6" apart~~.  ~~Driven by surgical tubing (~~will ~~need~~ a ~~long length with a pulley to keep from overstretching the tubing)~~.  ~~Need to control the force or the minibot will go flying!~~		US Digital encoders for arm mechanism.  This will require a reference "home spot."



			'''Electrical Controls'''



	~~'''Electrical Main'''~~

	~~'''Electrical Controls'''~~

	'''Programming'''		'''Programming'''

Programming at 23:51, 25 January 2011

2011-01-25T23:51:57Z

← Older revision		Revision as of 15:51, 25 January 2011
Line 3:		Line 3:
	Finalized frame rail dimensions.  Need to make sure Inventor measurements match actual wheel & frame dimensions.  Will bolt and weld corner brockets.  Most motors are ready to mount.  Encoders are mounted to the transmission.		Finalized frame rail dimensions.  Need to make sure Inventor measurements match actual wheel & frame dimensions.  Will bolt and weld corner brockets.  Most motors are ready to mount.  Encoders are mounted to the transmission.

	<br>		<br>

	<br>'''Arm/Manipulator'''		<br>'''Arm/Manipulator'''
Line 9:		Line 9:
	Sprockets need a bit of work to get chain to fit properly.  Parts for both arms are in, except pins for telescoping arm, which will be in Tuesday.  May need to get tube materials (appropriate sizes) - check with Harris. Must make sure to take all precautions to keep chain on sprocket(s).		Sprockets need a bit of work to get chain to fit properly.  Parts for both arms are in, except pins for telescoping arm, which will be in Tuesday.  May need to get tube materials (appropriate sizes) - check with Harris. Must make sure to take all precautions to keep chain on sprocket(s).

	<br>		<br>

	<br>'''Minibot/Deployer'''		<br>'''Minibot/Deployer'''
Line 17:		Line 17:
	Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.		Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.

	Minibot: two angled stock drive wheels, and one back wheel (which will be made of polycarbonate).  A tray on the back wheel side will hold the battery.  There may also be a "common form factor" 12x12 box that would allow us to loan the minibot to another team.  Need to figure out an "off" switch once the minibot triggers the tower.		Minibot: two angled stock drive wheels, and one back wheel (which will be made of polycarbonate).  A tray on the back wheel side will hold the battery.  There may also be a "common form factor" 12x12 box that would allow us to loan the minibot to another team.  Need to figure out an "off" switch once the minibot triggers the tower.

	Need to determine front load or back load (probably back load, to allow plenty of room for arm on front).		Need to determine front load or back load (probably back load, to allow plenty of room for arm on front).

	<br>		<br>

	<br>'''Electrical Main'''		<br>'''Electrical Main'''
Line 27:		Line 27:
	Met with Programming to discuss what kinds of controls are needed.  New signal light concept: PVC wrapped with LED in various colors (blue/white/red/green).  New electrical layout with drop-pan design in drivetrain.  There's a full sensors list on the wiki now (coordinated with Programming).		Met with Programming to discuss what kinds of controls are needed.  New signal light concept: PVC wrapped with LED in various colors (blue/white/red/green).  New electrical layout with drop-pan design in drivetrain.  There's a full sensors list on the wiki now (coordinated with Programming).

	<br>		<br>

	<br>'''Electrical Controls'''		<br>'''Electrical Controls'''
Line 33:		Line 33:
	Nothing substantially new.		Nothing substantially new.

	<br>		<br>

	<br>'''Programming'''		<br>'''Programming'''

	Need to determine positions of sensors and communicate to Electrical and Mechanical.		Need to determine positions of sensors and communicate to Electrical and Mechanical.



			1-25-11

			'''Drivetrain'''

			Drivetrain is painted.



			'''Arm/Manipulator'''

			Superstructure is being built in CAD.  List of "robot frame requirements" has been created, to document all the things that interface with the frame.  Need to add extra transmission and motor for the arm to the shopping list.  Manipulator now has a mounting plate in CAD.



			'''Minibot/Deployer'''

			New lightweight slides about 30" long are being made for the deployer - two tracks about 6" apart.  Driven by surgical tubing (will need a long length with a pulley to keep from overstretching the tubing).  Need to control the force or the minibot will go flying!



			'''Electrical Main'''

			'''Electrical Controls'''

			'''Programming'''

Programming at 19:25, 22 January 2011

2011-01-22T19:25:00Z

← Older revision		Revision as of 11:25, 22 January 2011
Line 17:		Line 17:
	Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.		Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.

	Minibot: two angled stock drive wheels, and one back wheel (which will be made of polycarbonate).  A tray on the back wheel side will hold the battery.  There may also be a "common form factor" 12x12 box that would allow us to loan the minibot to another team.  Need to figure out an "off" switch once the minibot triggers the tower.		Minibot: two angled stock drive wheels, and one back wheel (which will be made of polycarbonate).  A tray on the back wheel side will hold the battery.  There may also be a "common form factor" 12x12 box that would allow us to loan the minibot to another team.  Need to figure out an "off" switch once the minibot triggers the tower.

			Need to determine front load or back load (probably back load, to allow plenty of room for arm on front).

	<br>		<br>

Programming at 19:23, 22 January 2011

2011-01-22T19:23:05Z

← Older revision		Revision as of 11:23, 22 January 2011
Line 15:		Line 15:
	A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.		A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.

	Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.		Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.

	Minibot: two angled stock drive wheels, and one back wheel (which will be made of polycarbonate).  A tray on the back wheel side will hold the battery.  There may also be a "common form factor" 12x12 box that would allow us to loan the minibot to another team.  Need to figure out an "off" switch once the minibot triggers the tower.		Minibot: two angled stock drive wheels, and one back wheel (which will be made of polycarbonate).  A tray on the back wheel side will hold the battery.  There may also be a "common form factor" 12x12 box that would allow us to loan the minibot to another team.  Need to figure out an "off" switch once the minibot triggers the tower.

	<br>		<br>
Line 29:		Line 29:
	<br>'''Electrical Controls'''		<br>'''Electrical Controls'''

	.		Nothing substantially new.

	<br>		<br>

Programming at 19:11, 22 January 2011

2011-01-22T19:11:41Z

← Older revision		Revision as of 11:11, 22 January 2011
Line 15:		Line 15:
	A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.		A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.

	Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.		Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.

			Minibot: two angled stock drive wheels, and one back wheel (which will be made of polycarbonate).  A tray on the back wheel side will hold the battery.  There may also be a "common form factor" 12x12 box that would allow us to loan the minibot to another team.  Need to figure out an "off" switch once the minibot triggers the tower.

	<br>		<br>

Programming at 19:01, 22 January 2011

2011-01-22T19:01:57Z

← Older revision		Revision as of 11:01, 22 January 2011
Line 15:		Line 15:
	A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.		A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.

	Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts.  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.		Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts (or surgical tubing, gas shock, etc.).  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.

	<br>		<br>

Programming at 18:55, 22 January 2011

2011-01-22T18:55:06Z

← Older revision		Revision as of 10:55, 22 January 2011
Line 13:		Line 13:
	<br>'''Minibot/Deployer'''		<br>'''Minibot/Deployer'''

	A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.		A new idea is to have "tusks" that will swing out from the front of the robot and bracket the base of the tower, to align the robot properly.  There will be stops to keep them at the right position once they swing out.  They must be strong - this subteam needs to calculate the strength needed, for a 155 lb. robot moving at speed, so that the "tusks" don't break.

	Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts.  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.		Once robot's aligned, minibot (mounted on drawer slides) will slide out to pole, driven by a motor and timing belts.  A "V" notch will guide the minibot into position on the pole.  Minibot may be held in place by a vertical peg in the drawer, then will lift itself straight up off the peg.  Need to know the "envelope" within the robot that the minibot & drawer & slides will fit inside.

	<br>		<br>