Datasheet Linear Technology LT6110

Manufacturer	Linear Technology
Series	LT6110

Cable/Wire Drop Compensator

Datasheets

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PDF, 532 Kb, Revision: A, File uploaded: Nov 12, 2017

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Prices

Packaging

	LT6110HDC#PBF	LT6110HDC#TRMPBF	LT6110HDC#TRPBF	LT6110HTS8#PBF	LT6110HTS8#TRMPBF	LT6110HTS8#TRPBF	LT6110IDC#PBF	LT6110IDC#TRMPBF	LT6110IDC#TRPBF	LT6110ITS8#PBF	LT6110ITS8#TRMPBF	LT6110ITS8#TRPBF
N	1	2	3	4	5	6	7	8	9	10	11	12
Package	2x2 DFN-8 Package Outline Drawing	2x2 DFN-8 Package Outline Drawing	2x2 DFN-8 Package Outline Drawing	SOT-23 Package Outline Drawing	SOT-23 Package Outline Drawing	SOT-23 Package Outline Drawing	2x2 DFN-8 Package Outline Drawing	2x2 DFN-8 Package Outline Drawing	2x2 DFN-8 Package Outline Drawing	SOT-23 Package Outline Drawing	SOT-23 Package Outline Drawing	SOT-23 Package Outline Drawing
Package Code	DC8	DC8	DC8	TS8	TS8	TS8	DC8	DC8	DC8	TS8	TS8	TS8
Package Index	05-08-1719	05-08-1719	05-08-1719	05-08-1637	05-08-1637	05-08-1637	05-08-1719	05-08-1719	05-08-1719	05-08-1637	05-08-1637	05-08-1637
Pin Count	8	8	8	8	8	8	8	8	8	8	8	8

Parametrics

Parameters / Models	LT6110HDC#PBF	LT6110HDC#TRMPBF	LT6110HDC#TRPBF	LT6110HTS8#PBF	LT6110HTS8#TRMPBF	LT6110HTS8#TRPBF	LT6110IDC#PBF	LT6110IDC#TRMPBF	LT6110IDC#TRPBF	LT6110ITS8#PBF	LT6110ITS8#TRMPBF	LT6110ITS8#TRPBF
Demo Boards	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A	DC2033A
Design Tools	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File	LTspice File
Export Control	no	no	no	no	no	no	no	no	no	no	no	no
Features	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator	Cable Drop Compensator
Isupply, mA	0.016	0.016	0.016	0.016	0.016	0.016	0.016	0.016	0.016	0.016	0.016	0.016
Number of Supplies	1	1	1	1	1	1	1	1	1	1	1	1
Operating Temperature Range, °C	-40 to 125	-40 to 125	-40 to 125	-40 to 125	-40 to 125	-40 to 125	-40 to 85	-40 to 85	-40 to 85	-40 to 85	-40 to 85	-40 to 85
Vin Max, V	50	50	50	50	50	50	50	50	50	50	50	50
Vin Min, V	2	2	2	2	2	2	2	2	2	2	2	2

Eco Plan

	LT6110HDC#PBF	LT6110HDC#TRMPBF	LT6110HDC#TRPBF	LT6110HTS8#PBF	LT6110HTS8#TRMPBF	LT6110HTS8#TRPBF	LT6110IDC#PBF	LT6110IDC#TRMPBF	LT6110IDC#TRPBF	LT6110ITS8#PBF	LT6110ITS8#TRMPBF	LT6110ITS8#TRPBF
RoHS	Compliant	Compliant	Compliant	Compliant	Compliant	Compliant	Compliant	Compliant	Compliant	Compliant	Compliant	Compliant

Design Notes

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Control the Voltage of a Remote Load Over Any Length of Copper Wire &mdash DN529
PDF, 190 Kb, File published: Jul 8, 2014
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Control the Voltage of a Remote Load Over Any Length
of Copper Wire вЂ“ Design Note 529
Philip Karantzalis
Introduction
A common problem in power distribution systems is
loss of regulation due to the cable/wire voltage drop
between the regulator and the load. Any increase in
wire resistance, cable length or load current increases
the voltage drop over the distribution wire, increasing
the difference between actual voltage at the load and
the voltage perceived by the regulator. One way to
improve regulation over long cable runs is to measure
voltage directly at the load via a 4-wire Kelvin connection between the regulator and the load. Unfortunately,
this solution requires routing additional wires to the
load as well as a Kelvin resistor placed near the load,
impractical when the load is inaccessible for modification. Another method minimizes the voltage drop by
employing large diameter wire, lowering the resistance
from the regulator to the load. This is electrically simple,
but can be mechanically complicated. Increasing the
size of cable conductors can significantly increase
space requirements and cost. The LT6110 Cable/Wire Compensator
Figure 1 shows a 1-wire compensation block diagram.
If the remote load circuit does not share the regulatorвЂ™s ground, two wires are required, one to the load …

Articles

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Compensate for Wire Drop to a Remote Load &mdash LT Journal
PDF, 117 Kb, File published: Oct 27, 2014
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design ideas Compensate for Wire Drop to a Remote Load
Philip Karantzalis A common problem in power distribution systems is degradation of regulation due to the
wire voltage drop between the regulator and the load. Any increase in wire resistance,
cable length or load current increases the voltage drop over the distribution wire, increasing
the difference between voltage at the load and the voltage programmed by the regulator.
Remote sensing requires routing additional wires to the load. No extra wiring is required
with the LT6110 cable/wire drop compensator. This article shows how the LT6110 can
improve regulation by compensating for a wide range of regulator-to-load voltage drops.
THE LT6110 CABLE/WIRE
COMPENSATOR Figure 1 shows a 1-wire compensation
block diagram. If the remote load circuit
does not share the regulatorвЂ™s ground,
two wires are required, one to the load
and one ground return wire. The LT6110
high side amplifier senses the load current by measuring the voltage, VSENSE ,
across the sense resistor, RSENSE , and sinks
a current, IIOUT, proportional to the load
current, ILOAD. IIOUT scale factor is programmable with the RIN resistor from
10Вµ A to 1m A. Wire voltage drop, VDROP,
compensation is accomplished by sinking
IIOUT through the RFA feedback resistor
to increase the regulatorвЂ™s output by an
amount equal to VDROP. An LT6110 cable/ Figure 1. No extra wires are required to compensate …

Model Line

Series: LT6110 (12)

LT6110HDC#PBF LT6110HDC#TRMPBF LT6110HDC#TRPBF LT6110HTS8#PBF LT6110HTS8#TRMPBF LT6110HTS8#TRPBF LT6110IDC#PBF LT6110IDC#TRMPBF LT6110IDC#TRPBF LT6110ITS8#PBF LT6110ITS8#TRMPBF LT6110ITS8#TRPBF

Manufacturer's Classification

Monitor, Control and Protection > Cable Drop Compensation
Space & Harsh Environment > Extended Temperature Plastic (H & MP) > Extended Temperature (H & MP) System Monitor