Studio	5000	logix	designer	manual
  Studio	5000	logix	designer	manual	español.	Studio	5000	logix	designer	installation	guide.	Studio	5000	logix	designer	programming	manual.	What	is	studio	5000	logix	designer.	Studio	5000	logix	designer	price.	
  Rockwell	Automation	Studio	5000	Logix	Designer	Beginner's	Tutorial	by	Stephen	Gates,	owner	of	Myplctraining.com	regarding	Industrial	Automation.	Studio	5000	is	one	of	the	most	used	software	packages	in	the	world.	Studio	5000	Logix	Designer	(formerly	known	as	RSLogix	5000)	is	used	to	program	the	most	powerful	Allen-Bradley	Plcs	(technical
  PACS),	including	Controllogix	and	CompactLogix	controllers.	In	my	career,	I	specialize	in	helping	people	become	confident	PLC	programmers	to	advance	their	careers	or	just	get	better	at	their	jobs.	In	this	tutorial,	I'll	walk	you	through	setting	up	your	first	project	in	Studio	5000	Logix	Designer.	This	is	the	key	software	you	need	to	learn	to	become	a
  confident	PLC	programmer.	Project	in	Studio	5000	Logix	Designer	If	you	have	Studio	5000	installed	on	your	PC,	you	should	find	it	in	your	applications	in	a	folder	called	"Rockwell	Software".	You	will	be	taken	to	a	launch	menu	that	allows	you	to	create	a	new	project,	open	an	existing	project,	or	get	help	for	the	software.	We're	going	to	create	a	new
  project	from	scratch,	so	we'll	select	New	Project	under	the	"Create"	heading.	From	here	we	have	several	options	for	project	types,	but	in	this	case	we	want	to	select	Logix	because	we	are	creating	a	Logix	Designer	PLC	program.	Once	we	have	selected	the	type	of	project	we	want	to	create.	Now	it's	time	to	select	the	type	of	driver	we	want	to	use	for
  the	project.	In	this	tutorial	we	will	use	the	Studio	500	Logix	Emulate	Controller.	This	controller	emulates	a	physical	controller	by	using	some	of	the	computer's	memory	to	act	like	a	PLC	controller.	We	could	choose	any	of	the	driver	options,	but	I'll	cover	the	Studio	5000	Logix	in	the	next	article	in	this	seriesSoftware,	so	using	the	emulation	driver	in
  this	example	will	set	us	up	for	the	next	tutorial.	Okay,	let's	give	the	controller	a	name.	Let's	call	it	sump_control_station.	Then	press	next	at	this	point,	we	can	select	the	firmware	revision	number	to	use	on	the	controller.	I	have	Logix	Designer	version	30	on	this	machine,	so	we'll	stick	with	the	default	revision	30.	You	can	also	choose	the	type	of	chassis
  in	which	the	controller	will	reside.	(Note	that	this	only	applies	to	Contrologix,	GuardLogix,	and	Logix,	because	controllers	are	like	controllers,	because	controllers	are	like	controllers,	because	they	are	controllers	that	control	controllers.	CompactLogix	systems	do	not	use	a	chassis).	We	will	keep	the	default	chassis	with	4	slots	and	leave	the	controller
  in	the	default	slot	position,	slot	0.	Now	click	Finish	to	create	your	first	project!	Ok,	now	we	have	successfully	created	a	new	Logix	designer	project.	This	is	what	you	should	see	when	you	first	get	into	the	software.	Adding	I/O	modules	to	the	project	OK,	now	that	our	project	is	set	up	to	add	some	I/O	modules	to	our	configuration.	Logix	Designer	makes	it
  really	easy.	On	the	left	side,	inside	the	controller	organizer,	find	Configuration	â	I/O	configurations,	right	click	on	the	1756	motherboard.	Here	we	will	add	the	input	and	output	modules	that	will	be	controlled	by	our	controller.	So	we	select	a	new	module	by	adding	an	analog	input	module	and	a	discrete	output	module.	Since	we	have	an	emulated
  LOGIX	controller,	this	will	limit	our	options	to	Controllogix	I/O	modules	only.	We	can	use	filters	to	further	narrow	down	our	options.	So	we	choose	analog.	Let's	take	the	first	one	available	which	is	1756-IF16.	16-channel	analog	voltage/current	input	module.	We	don't	need	to	name	it,	so	we'll	simply	skip	it	and	press	"OK"	when	the	new	module	appears.
  OK,	now	let's	add	a	discrete	(or	digital)	output	module.	So	change	the	filter	from	analog	to	digital.	And	we	will	choose	a	32-point	24VDC	output	module,	which	will	be	1756-OB32.	And	again,	there	is	no	need	to	name	the	module,	so	that's	enough"OK"	in	the	"New	Module"	dialog	box	that	opens.	Here's	what	you	should	see...	ok,	now	we're	making
  progress!	We	created	a	Logix	Designer	project	with	two	E/A	modules	added.	Now	let's	create	some	logic.	Creating	Ladder	Logic	This	tutorial	does	not	go	into	the	details	of	using	ladder	logic.	So	if	you	are	new	to	ladder	logic,	you	should	check	out	this	post.	For	now,	we'll	just	create	a	simple	crossbar.	The	purpose	of	this	rung	is	to	turn	on	the	pump	if
  the	tank	level	we	are	reading	increases	by	50%.	We'll	keep	it	as	simple	as	possible.	First,	open	the	standard	contact	plan	logic	routine	that	is	created	when	you	create	a	new	project.	Main	Task>	Main	Program>	Main	Routine.	Next,	we'll	use	the	"Instructions"	tab	above	the	logic	area	to	select	the	logic	instructions.	To	create	our	logic,	we	need	a
  "greater	than"	comparison	instruction.	We	find	it	in	the	"Compare"	tab	and	the	instruction	is	called	"GRT".	Simply	click	on	the	GRT	and	drag	it	to	the	first	rung	of	the	ladder	logic	routine.	To	do	this,	remember	that	this	logic	should	turn	on	the	pump	if	the	tank	fill	level	increases	by	50%.	Our	pump	is	controlled	by	a	discrete	start	module:	the	1756-
  OB32	module.	We	use	a	command	to	turn	the	output	on,	which	works	much	like	a	simple	in/off	relay	coil.	Command	to	turn	on	the	output	or	OTE.	Ote	should	be	in	the	"Favorite"	tab	and	the	"Bit"	tab.	Ok,	now	we	need	to	send	our	instructions	to	our	I/O	modules	to	read	the	correct	data	and	write	to	the	correct	locations.	For	GRT	instructions,	remember
  that	we	compare	the	analog	input	to	50%.	And	it	uses	channel	5	from	the	analog	input	module.	Now,	the	syntax	is	a	little	different	depending	on	the	module	type	used,	but	you	can	always	search	for	available	tags	and	module	addresses	via	the	drop-down	menu.	From	our	analog	inputIn	the	Nest	1	we	will	use	local:	1:	and	we	will	develop	it.	One	thing
  that	is	fairly	consistent	with	the	syntax	of	the	WE/O	modules	in	the	Logix	Designer	is	that	the	data	point	we/o	or	channel	almost	always	contains	the	word	"data".	Because	we	want	channel	5,	let's	scroll	down	until	we	see	something	about	CH5	and	"data".	So	the	correct	address	in	this	case	is	local:	1:	I.Ch5data.	We	want	to	compare	this	analog	input
  value	to	50.	In	the	source	B	of	the	GRT	instructions	we	will	insert	the	number	50.	Then	it	is	handled	with	the	OTE	instructions.	Remember	that	the	discrete	output	module	is	in	the	Nest	2,	so	we're	looking	for	local:	2.	And	because	it's	the	output	module,	it	should	be	at	the	address.	This	will	be	local:	2:O.Data	and	then	we	need	to	select	which	starting
  point	will	be	used	by	the	32	point	module.	Let's	use	point	19.	So	we	get	locally:	2:	O.Data.	19.	And	this	ends	our	example	of	ladder	logic.	Now	we're	going	to	do	one	more	thing	to	ensure	our	program	works	the	way	we	want	it	to,	which	is	to	make	sure	the	analog	input	is	properly	scaled.	As	before,	we	want	the	analog	input	to	give	us	the	percentage	of
  filling	the	tank.	So	we	want	the	CH5	address	to	give	us	a	value	between	0-100%.	To	set	the	scaling,	we	go	to	the	property	of	the	1756-IF16	module.	Just	click	on	the	module	in	the	We/O	tree	to	open	the	properties.	This	should	show	the	properties...	Once	inside	the	properties	we	want	to	do	the	following:	Go	to	CH05	change	the	input	type	(a)	to	voltage
  (v)	the	input	range	of	0-10V	(inclusive.	Imagine	For	example	suppose	that	the	sensor	that	the	level	in	the	tank	has	in	the	tank	sends	a	0-10V	signal	Channel	5	that	it	is	scaled	to	100%	and	when	the	sensor	gives	us	a	5V	signal	is	it	scales	to	50%,	etc.	Summary	You	should	now	be	able	to	create	a	5000	Logix	Designer	StudioAdd	the	necessary	I/O	modules
  from	scratch	and	even	create	ladder	logic	with	addresses	from	your	I/O	modules.	In	the	next	article,	we'll	look	at	how	to	use	Logix	Designer	with	Logix	Emulate	so	you	can	test	your	logic,	simulate	your	machines,	and	just	have	fun	experimenting	with	PLC	programming.	So	stay	tuned!	In	the	meantime,	if	you	have	other	questions	related	to	the	topics
  we've	covered	in	this	article,	check	out	our	other	great	articles.	Subscribe	to	the	registration	to	see	the	full	content	of	the	answer