1032 User Guide - Revision history

Mparadis at 14:24, 9 May 2018

2018-05-09T14:24:05Z

← Older revision		Revision as of 14:24, 9 May 2018
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			__NOINDEX__
	[[Category:UserGuide]]		[[Category:UserGuide]]
	{{UserguideTOC\|1032.jpg\|1032}}		{{UserguideTOC\|1032.jpg\|1032}}

Mparadis: /* Product History */

2016-04-20T14:43:14Z

Product History

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	{{UGhist}}		{{UGhist}}
	{{UGrow\|January 2013\|0\|200\|Product Release}}		{{UGrow\|January 2013\|0\|200\|Product Release}}
			{{UGrow\|October 2015\|0\|201\|OS X El Capitan USB bug fix}}

Mparadis: /* Product History */

2014-04-02T19:48:41Z

Product History

← Older revision		Revision as of 19:48, 2 April 2014
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	==Product History==		==Product History==

			The 1032 - PhidgetLED-64 replaced our previous LED controller, the [{{SERVER}}/products.php?product_id=1031 1031 - PhidgetLED-64].

	{{UGhist}}		{{UGhist}}
	{{UGrow\|January 2013\|0\|200\|Product Release}}		{{UGrow\|January 2013\|0\|200\|Product Release}}

Mparadis: /* Board Connector Diagram */

2013-03-08T15:23:01Z

Board Connector Diagram

← Older revision		Revision as of 15:23, 8 March 2013
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	[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]		[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]

	The connector used on the 1032 LED board is a Molex 70543-0003. The mating connector used on our ~~sensor~~ cables is the Molex 50-57-9404.		The connector used on the 1032 LED board is a Molex 70543-0003. The mating connector used on our LED cables is the Molex 50-57-9404.

	===Heat Dissipation and Thermal Protection===		===Heat Dissipation and Thermal Protection===

Mparadis: /* Board Connector Diagram */

2013-03-08T15:22:16Z

Board Connector Diagram

← Older revision		Revision as of 15:22, 8 March 2013
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	[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]		[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]

			The connector used on the 1032 LED board is a Molex 70543-0003. The mating connector used on our sensor cables is the Molex 50-57-9404.

	===Heat Dissipation and Thermal Protection===		===Heat Dissipation and Thermal Protection===

Mparadis: /* Heat Dissipation and Thermal Protection */

2013-01-31T17:47:32Z

Heat Dissipation and Thermal Protection

← Older revision		Revision as of 17:47, 31 January 2013
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	[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]		[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]

	==Heat Dissipation and Thermal Protection==		===Heat Dissipation and Thermal Protection===

	Projects that require a high supply voltage, or have a lot of heat being produced from over voltage settings, will have over-temperature problems. This can be mitigated somewhat by understanding how channels are grouped and how the heat is distributed around the controller. On the 1032 channels are split into four groups: (0-7,24-31), (8-23), (32-39, 56-63) and (40-55); each controlled by their own individual IC. Evenly distributing the LEDs that may produce a lot of heat across these groups will balance the load on the ICs and reduce the risk of thermal overload. When thermal overload occurs, the integrated circuit (IC) controlling the involved LEDs will disable the output of all the channels it controls. For example, if an over-temperature occurs due to channel 12, all of the channels 8 through 23 will be disabled by the IC until the temperature back within the operating range. Thermal protection is activated when the die of the IC reaches approximately 160 degrees Celsius. Once the over-temperature fault has been corrected (ie, the IC has cooled down), the output channels will be re-enabled with the same settings as before the thermal shutdown. An error message will be produced during an over-temperature.		Projects that require a high supply voltage, or have a lot of heat being produced from over voltage settings, will have over-temperature problems. This can be mitigated somewhat by understanding how channels are grouped and how the heat is distributed around the controller. On the 1032 channels are split into four groups: (0-7,24-31), (8-23), (32-39, 56-63) and (40-55); each controlled by their own individual IC. Evenly distributing the LEDs that may produce a lot of heat across these groups will balance the load on the ICs and reduce the risk of thermal overload. When thermal overload occurs, the integrated circuit (IC) controlling the involved LEDs will disable the output of all the channels it controls. For example, if an over-temperature occurs due to channel 12, all of the channels 8 through 23 will be disabled by the IC until the temperature back within the operating range. Thermal protection is activated when the die of the IC reaches approximately 160 degrees Celsius. Once the over-temperature fault has been corrected (ie, the IC has cooled down), the output channels will be re-enabled with the same settings as before the thermal shutdown. An error message will be produced during an over-temperature.

Mparadis: /* Technical Details */

2013-01-31T17:47:18Z

Technical Details

← Older revision		Revision as of 17:47, 31 January 2013
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	[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]		[[File:1031_0_Connector_Drawing.jpg\|400px\|link=]]

			==Heat Dissipation and Thermal Protection==

			Projects that require a high supply voltage, or have a lot of heat being produced from over voltage settings, will have over-temperature problems. This can be mitigated somewhat by understanding how channels are grouped and how the heat is distributed around the controller. On the 1032 channels are split into four groups: (0-7,24-31), (8-23), (32-39, 56-63) and (40-55); each controlled by their own individual IC. Evenly distributing the LEDs that may produce a lot of heat across these groups will balance the load on the ICs and reduce the risk of thermal overload. When thermal overload occurs, the integrated circuit (IC) controlling the involved LEDs will disable the output of all the channels it controls. For example, if an over-temperature occurs due to channel 12, all of the channels 8 through 23 will be disabled by the IC until the temperature back within the operating range. Thermal protection is activated when the die of the IC reaches approximately 160 degrees Celsius. Once the over-temperature fault has been corrected (ie, the IC has cooled down), the output channels will be re-enabled with the same settings as before the thermal shutdown. An error message will be produced during an over-temperature.

	===Further Reading===		===Further Reading===

Mparadis: /* Running Phidgets Sample Program */

2013-01-31T17:09:14Z

Running Phidgets Sample Program

← Older revision		Revision as of 17:09, 31 January 2013
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	# Use the LED Brightness slider to increase or decrease the LED brightness using pulse-width modulation.		# Use the LED Brightness slider to increase or decrease the LED brightness using pulse-width modulation.
	# Select from the drop-down menu an appropriate anode voltage: 1.7V, 2.75V, 3.9V, or 5V.		# Select from the drop-down menu an appropriate anode voltage: 1.7V, 2.75V, 3.9V, or 5V.
	# Use the current limit slider to choose an appropriate current limit up to a maximum of 80mA. '''Note:''' Using the current slider could cause false temperature warnings and errors to be reported. To avoid seeing these warnings, set the current limit once and use the brightness slider to change the brightness of the LEDs rather than changing the current limit.		# Use the current limit slider to choose an appropriate current limit up to a maximum of 80mA.
			'''Note:''' Using the current slider could cause false temperature warnings and errors to be reported. To avoid seeing these warnings, set the current limit once and use the brightness slider to change the brightness of the LEDs rather than changing the current limit.
	\|[[File:1032_0_LED_Screen.jpg\|400px\|link=]]		\|[[File:1032_0_LED_Screen.jpg\|400px\|link=]]
	}}		}}

Mparadis: /* Running Phidgets Sample Program */

2013-01-31T17:08:53Z

Running Phidgets Sample Program

← Older revision		Revision as of 17:08, 31 January 2013
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	# Use the LED Brightness slider to increase or decrease the LED brightness using pulse-width modulation.		# Use the LED Brightness slider to increase or decrease the LED brightness using pulse-width modulation.
	# Select from the drop-down menu an appropriate anode voltage: 1.7V, 2.75V, 3.9V, or 5V.		# Select from the drop-down menu an appropriate anode voltage: 1.7V, 2.75V, 3.9V, or 5V.
	# Use the current limit slider to choose an appropriate current limit up to a maximum of 80mA.		# Use the current limit slider to choose an appropriate current limit up to a maximum of 80mA. '''Note:''' Using the current slider could cause false temperature warnings and errors to be reported. To avoid seeing these warnings, set the current limit once and use the brightness slider to change the brightness of the LEDs rather than changing the current limit.
	\|[[File:1032_0_LED_Screen.jpg\|400px\|link=]]		\|[[File:1032_0_LED_Screen.jpg\|400px\|link=]]
	}}		}}

Mparadis: /* Product History */

2013-01-31T16:28:01Z

Product History

← Older revision		Revision as of 16:28, 31 January 2013
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	==Product History==		==Product History==
	{{UGhist}}		{{UGhist}}
	{{UGrow\|January 2013\|0\|~~100~~\|Product Release}}		{{UGrow\|January 2013\|0\|200\|Product Release}}