IP Library › Granted Patent US 11,016,043
Granted Patent B2
US 11,016,043 · App. 15/680,548 · Granted May 25, 2021

Integrated, portable sample analysis system and method

Inventors: Patrick F. Henning (Concord, MA); Thomas G. Barraclough (Maynard, MA); Eric J. Olson (Phillipston, MA); Stephen D. Lawrence (Ayer, MA); Robert J. Yurko (Chelmsford, MA)
Assignee: Spectro Scientific, Inc.
G01N23/083G01N11/04G01N21/3577G01N23/2076G01N23/223G01N33/2888G01J2003/283G01N2223/076G01N2223/301
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Quick Facts
Patent No.
US 11,016,043
App. No.
15/680,548
Granted
May 25, 2021
Kind
B2
Abstract

An integrated portable sample analysis system includes a portable case including an interior panel and a spectrometer subsystem. The spectrometer subsystem includes a flip top spectrometer sample cell including first and second members each including a window aligned with each other when the first and second members are coupled together defining a predefined spacing between the windows when the first and second members are coupled together, the first and second members decoupled for manually placing a fluid sample on a the window. An analyzer behind the interior panel receives the flip top spectrometer sample cell therein when the first and second members are coupled together for analyzing the fluid sample located between the windows by directing radiation through the windows and the fluid sample. The flip top spectrometer sample cell is configured to be withdrawn out of the analyzer for cleaning of the windows. The integrated portable sample analysis system also includes a viscometer subsystem including a flip top sample viscometer cell. The flip top sample viscometer cell includes a first plate including a rail configured to constrain a fluid sample manually presented thereto between its edges by surface tension, and a second plate including a surface spaced from the rail by a predefined gap for constraining fluid to the rail by surface tension when the rail is inclined by gravity and pulls the fluid along the rail. An analysis unit is behind the interior panel receiving the flip top viscometer sample cell therein when the first and second plates are coupled together for defining the viscosity of the sample flowing along said rail, and the flip top viscometer sample cell is configured to be withdrawn out of the analysis unit for cleaning of the rail. A processing subsystem is associated with the portable case and responsive to the spectrometer subsystem and the viscometer subsystem and configured to process outputs of the spectrometer subsystem and the viscometer subsystem and to provide a report concerning the sample, its physical properties, and its viscosity.

Claims (45)

1. An integrated portable sample analysis system comprising:

a portable case including an interior panel;

a spectrometer subsystem including:

a flip top spectrometer sample cell including first and second members each including a window aligned with each other when the first and second members are coupled together defining a predefined spacing between the windows when the first and second members are coupled together, the first and second members decoupled for manually placing a first portion of a fluid sample on one window, and

an analyzer behind said interior panel receiving said flip top spectrometer sample cell therein when the first and second members are coupled together for analyzing the first portion of the fluid sample located between said windows by directing radiation through said windows and the first portion of the fluid sample,

the flip top spectrometer sample cell configured to be withdrawn out of the analyzer for cleaning of said windows;

a viscometer subsystem including:

a flip top sample viscometer cell including:

a first plate including a rail configured to constrain a second portion of the fluid sample manually presented thereto between its edges by surface tension, and

a second plate including a surface spaced from said rail by a predefined gap for constraining the second portion of the fluid sample to the rail by surface tension when the rail is inclined by gravity and pulls the fluid sample along the rail,

an analysis unit behind said interior panel receiving said flip top viscometer sample cell therein when the first and second plates are coupled together for defining the viscosity of the second portion of the fluid sample flowing along said rail, and

the flip top viscometer sample cell configured to be withdrawn out of the analysis unit for cleaning of the rail; and

a processing subsystem associated with said portable case and responsive to the spectrometer subsystem and the viscometer subsystem and configured to process outputs of the spectrometer subsystem and the viscometer subsystem and to provide a report concerning the fluid sample, its physical properties, and its viscosity.

2. The integrated portable sample analysis system of claim 1 in which the portable case further includes a syringe pump subsystem including a port for receiving a third portion of the fluid sample and which is configured to urge said third portion of the fluid sample through a filter for collecting particles in the third portion of the fluid sample thereon.

3. The integrated portable sample analysis system of claim 2 in which the syringe pump subsystem further includes a particle counter configured to provide to the processing subsystem signals concerning the number and size distribution of any particles in the third portion of the fluid sample.

4. The integrated portable sample analysis system of claim 2 in which the syringe pump subsystem further includes a pressure sensor upstream of the filter and a pressure sensor downstream of the filter to determine when particles on the filter reach a predetermined density.

5. The integrated portable sample analysis system of claim 2 in which the portable case further includes an x-ray analysis subsystem.

6. The integrated portable sample analysis system of claim 5 in which the x-ray analysis subsystem is configured to x-ray said particles and to output to the processing subsystem signals corresponding to a composition of said particles.

7. The integrated portable sample analysis system of claim 6 in which said x-ray analysis subsystem further includes a port for receiving a fourth portion of the fluid sample and which is configured to output to the processing subsystem signals corresponding to the composition of any dissolved material in the fourth portion of the fluid sample to the processing subsystem.

8. The integrated portable sample analysis system of claim 7 in which the processing, subsystem is responsive to the x-ray analysis subsystem and is further configured to process said signals corresponding to the composition of said particles and the composition of any dissolved material in the fourth portion of the fluid sample and to provide a report concerning the composition of any dissolved material in the fourth portion of the fluid sample and the composition of said particles.

9. The integrated portable sample analysis system of claim 1 in which said flip top spectrometer sample cell first and second members are hinged to each other.

10. The integrated portable sample analysis system of claim 1 in which said flip top sample viscometer cell first and second plates are hinged together.

11. An integrated portable sample analysis system comprising:

a portable case;

a spectrometer subsystem in the portable case and including:

a flip top spectrometer sample cell including:

first and second members defining a predefined spacing therebetween when coupled together,

a window in each member, the windows aligned with each other when the first and second members are coupled together, at least one said window for manually placing a first portion of a fluid sample thereon when the first and second members are decoupled, and

an analyzer for said flip top spectrometer sample cell configured to be inserted into the analyzer for analysis of the first portion of the fluid sample by directing radiation through said windows and the first portion of the fluid sample when the first and second members are coupled together, and configured to be withdrawn out of the analyzer for cleaning said windows;

a viscometer subsystem in the portable case and including:

a flip top sample viscometer cell including:

a first plate including a rail configured to constrain a second portion of the fluid sample manually presented thereto between its edges by surface tension, and

a second plate including a surface spaced from said rail by a

predefined gap for constraining the second portion of the fluid sample to the rail by surface tension when the rail is inclined by gravity and pulls the second portion of the fluid sample along the rail, and

an analysis unit receiving said flip top viscometer sample cell configured to be inserted into the analysis unit for analyzing the viscosity of the second portion of the fluid sample flowing along said rail when the first and second plates are coupled together, and configured to be withdrawn out of the analysis unit for cleaning said plates; and

a processing subsystem associated with said portable case and responsive to the spectrometer subsystem and the viscometer subsystem and configured to process outputs of the spectrometer subsystem and the viscometer subsystem and to provide a report concerning physical properties and viscosity of the fluid sample.

12. The integrated portable sample analysis system of claim 11 in which the portable case further includes a syringe pump subsystem including a port for receiving a third portion of the fluid sample and which is configured to urge the third portion of the fluid sample through a filter for collecting particles in the third portion of the fluid sample thereon.

13. The integrated portable sample analysis system of claim 12 in which the syringe pump subsystem further includes a particle counter configured to provide to the processing subsystem signals concerning the number and size distribution of any particles in the third portion of the fluid sample.

14. The integrated portable sample analysis system of claim 12 in which the syringe pump subsystem further includes a pressure sensor upstream of the filter and a pressure sensor downstream of the filter to determine when particles on the filter reach a predetermined density.

15. The integrated portable sample analysis system of claim 12 in which the portable case further includes an x-ray analysis subsystem.

16. The integrated portable sample analysis system of claim 15 in which the x-ray analysis subsystem is configured to x-ray said particles and to output to the processing subsystem signals corresponding to a composition of said particles.

17. The integrated portable sample analysis system of claim 16 in which said x-ray analysis subsystem further includes a port for receiving a fourth portion of the a fluid sample and which is configured to output to the processing subsystem signals corresponding to the composition of any dissolved material in the fourth portion of the fluid sample to the processing subsystem.

18. The integrated portable sample analysis system of claim 17 in which the processing subsystem is responsive to the x-ray analysis subsystem and is further configured to process said signals corresponding to the composition of said particles and the composition of any dissolved material in the fourth portion of the fluid sample and to provide a report concerning the composition of any dissolved material in the fourth portion of the fluid sample and the composition of said particles.

19. The integrated portable sample analysis system of claim 11 in which said flip top spectrometer sample cell first and second members are hinged to each other.

20. The integrated portable sample analysis system of claim 11 in which said flip top sample viscometer cell first and second plates are hinged together.

Continuity (3)
Continuation 13374934 · Jan 24, 2012
Continuation In Part 12321399 · Jan 20, 2009
Related Publication 20170343489A1 · Nov 30, 2017
Cited By (1)
US 12,332,151