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Lemna J Hunter

from Albuquerque, NM
Age ~59
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Also known as:
Lemna Joseph Hunter, Lem J Hunter, Lenna J Hunter, Hunter Lemna
Related to:
Anaclaire S Hunter, 58Jill Hensley, 53Richard Hunter, 39Nathan Hunter, 61Richard E Hunter, 81Gregory Hunter, 51
Connected to:
Alfreda Hunter, 61Alise D Hunter, 63Alonda C Hunter, 54Alpha M Hunter, 85Andre C Hunter, 58Angelia Hunter, 57Anisa Hunter, 31Arden D Hunter, 63Artika L Hunter, 34Ashley Hunter, 37

Lemna Hunter Phones & Addresses

  • Albuquerque, NM
  • 384 Ashley Ln, Corrales, NM 87048 (575) 313-0015
  • San Marcos, CA
  • Dolliver, IA
  • 157 Anya Rd, Corrales, NM 87048 (505) 313-0015

Work

Company: Mechtronic solutions, inc. Address: 3801 Academy Parkway North Ne, Albuquerque, NM 87109 Phones: (505) 821-4740 Position: President Industries: Engineering Services

Education

Degree: High school graduate or higher

Emails

l***[email protected]

Professional Records

License Records

Lemna Joseph Hunter

Address:
PO Box 1130, Corrales, NM 87048
License #:
A2385979
Category:
Airmen

Business Records

Name / Title
Company / Classification
Phones & Addresses
Lemna Hunter
President
Mechtronic Solutions, Inc.
Engineering Services
3801 Academy Parkway North Ne, Albuquerque, NM 87109
Lemna J. Hunter
Chief Executive Officer
VIBRANT CORPORATION
Testing Laboratory · Testing Laboratory Commercial Physical Research
5550 Midway Park Pl Ne  , Albuquerque, NM 87109
5550 Midway Park Pl NE, Albuquerque, NM 87109
(505) 314-1488
Lemna Hunter
Organizer, Principal
EMPIRE ASSETS, LLC
Business Services at Non-Commercial Site
384 Ashley Ln   , Corrales, NM 87048
384 Ashley Ln, Corrales, NM 87048
Lemna Hunter
President
Mechtronic Solutions, Inc.
Engineering Services
3801 Academy Parkway North Ne, Albuquerque, NM 87109

Publications

Us Patents

Downhill Ski With Integrated Binding/Traction Device

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US Patent:
6390491, May 21, 2002
Filed:
May 15, 2000
Appl. No.:
09/570750
Inventors:
Lemna J. Hunter - Corrales NM, 87048
International Classification:
A63C 710
US Classification:
280604, 280605, 280617, 280618
Abstract:
A traction device for a downhill ski is disclosed. In one embodiment the traction device includes a traction member which is movably interconnected with the downhill ski. At least one biasing member actively biases this traction member toward a position where at least a portion of the traction member will extend beyond the entire lower surface of the downhill ski or an âactiveâ position. However, the traction member can be retained in a non-traction or âinactiveâ position by a latch. Appropriate movement of the latch allows the biasing member(s) to move the traction member into the desired traction position. The end of a ski pole can be used to activate the latch and initiate movement of the traction member. In one embodiment this traction device is integrated with the structure of the binding. This allows the traction device to be automatically moved to its âactiveâ position whenever a ski boot comes out of the binding, such that the traction device in this instance will act as a ski brake.

Downhill Ski With Integrated Binding/Traction Device

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US Patent:
6722687, Apr 20, 2004
Filed:
May 3, 2002
Appl. No.:
10/138177
Inventors:
Lemna J. Hunter - Corrales NM
Assignee:
Mechanical Solutions, Inc. - Albuquerque NM
International Classification:
A63C 500
US Classification:
280605, 280604, 280614
Abstract:
A traction device for a downhill ski. In one embodiment the traction device includes a traction member which is movably interconnected with the downhill ski. At least one biasing member actively biases this traction member toward a position where at least a portion of the traction member will extend beyond the entire lower surface of the downhill ski or an âactiveâ position. However, the traction member can be retained in a non-traction or âinactiveâ position by a latch. Appropriate movement of the latch allows the biasing member(s) to move the traction member into the desired traction position. The end of a ski pole can be used to activate the latch and initiate movement of the traction member. In one embodiment this traction device is integrated with the structure of the binding. This allows the traction device to be automatically moved to its âactiveâ position whenever a ski boot comes out of the binding, such that the traction device in this instance will act as a ski brake.

Apparatuses And Method For Maskless Mesoscale Material Deposition

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US Patent:
7045015, May 16, 2006
Filed:
Jan 17, 2003
Appl. No.:
10/346935
Inventors:
Michael J. Renn - Hudson WI, US
Bruce H. King - Albuquerque NM, US
Marcelino Essien - Cedar Crest NM, US
Lemna J. Hunter - Corrales NM, US
Assignee:
Optomec Design Company - Albuquerque NM
International Classification:
B05C 11/06
US Classification:
118686, 118 62, 118 63, 118500
Abstract:
Apparatuses and processes for maskless deposition of electronic and biological materials. The process is capable of direct deposition of features with linewidths varying from the micron range up to a fraction of a millimeter, and may be used to deposit features on substrates with damage thresholds near 100 C. Deposition and subsequent processing may be carried out under ambient conditions, eliminating the need for a vacuum atmosphere. The process may also be performed in an inert gas environment. Deposition of and subsequent laser post processing produces linewidths as low as 1 micron, with sub-micron edge definition. The apparatus nozzle has a large working distance—the orifice to substrate distance may be several millimeters—and direct write onto non-planar surfaces is possible.

Utilizing Resonance Inspection Of In-Service Parts

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US Patent:
20120158319, Jun 21, 2012
Filed:
Oct 21, 2011
Appl. No.:
13/278380
Inventors:
Lemna J. Hunter - Corrales NM, US
Leanne Jauriqui - Albuquerque NM, US
Greg Weaver - Rio Rancho NM, US
Assignee:
Vibrant Corporation - Albuquerque NM
International Classification:
G06F 19/00
US Classification:
702 34, 702 82
Abstract:
Various embodiments relating to resonance inspections and in-service parts are disclosed. One protocol () includes conducting a resonance inspection of an in-service part (). The frequency response of the in-service part may be compared with a resonance standard () for purposes of determining whether or not the in-service part is changing abnormally (). An in-service part that is identified as changing abnormally may be characterized as being “rejected” (). An in-service part that is no identified as changing abnormally may be characterized as being “accepted” ().

Part Evaluation System/Method Using Both Resonance And Surface Vibration Data

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US Patent:
20130074600, Mar 28, 2013
Filed:
Jun 19, 2012
Appl. No.:
13/526996
Inventors:
Lemna J. Hunter - Corrales NM, US
Leanne Jauriqui - Albuquerque NM, US
Greg Weaver - Rio Rancho NM, US
Assignee:
Vibrant Corporation - Albuquerque NM
International Classification:
G01H 13/00
US Classification:
73579
Abstract:
A part () may be subjected to both a resonance inspection and a surface vibration inspection. Various protocols () are disclosed as to how the results of one or more of these inspections may be used to evaluate the part ().

Systems And Methods For Nondestructive Testing Of Parts

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US Patent:
20130096881, Apr 18, 2013
Filed:
Oct 14, 2011
Appl. No.:
13/274150
Inventors:
Leanne Jauriqui - Albuquerque NM, US
Christopher Dennis Ziomek - Albuquerque NM, US
Lemna Hunter - Corrales NM, US
James J. Schwarz - Albuquerque NM, US
Assignee:
VIBRANT CORPORATION - Albuquerque NM
International Classification:
G06F 15/00
US Classification:
702189
Abstract:
A waveform generator and a signal analyzer are respectively provided in electrical communication with an input transducer and an output transducer capable of conversion between electrical and acoustic signals, and in mechanical communication with the part. A processor coupled with the waveform generator and signal analyzer receives a set of parameters defining a frequency scan from which it determines a number of frequency sweeps to be performed by the waveform generator. Each of the frequency sweeps has a number of frequencies less than a maximum capacity of the waveform generator, and for each frequency sweep, the processor instructs the waveform generator to excite the input transducer and synchronously receiving a response signal with the signal analyzer at multiple frequencies.

Downhill Ski With Traction Device

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US Patent:
62935763, Sep 25, 2001
Filed:
May 19, 1999
Appl. No.:
9/314361
Inventors:
Lemna J. Hunter - Corrales NM
Assignee:
Mechanical Solutions, Inc. - Albuquerque NM
International Classification:
A63C 710
US Classification:
280604
Abstract:
A traction device for a downhill ski is disclosed. In one embodiment the traction device includes a traction member which is pivotally interconnected with the downhill ski. At least one biasing member actively biases this traction member toward a position where at least a portion of the traction member will extend beyond the entire lower surface of the downhill ski. However, the traction member can be retained in a non-traction position by a latch. Appropriate movement of the latch allows the biasing member(s) to pivot the traction member into the desired traction position. The end of a ski pole can be used to activate the latch and initiate movement of the traction member.

Differential Pressure Detection System For Signaling Electrically-Activated Valve

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US Patent:
59707976, Oct 26, 1999
Filed:
Nov 4, 1998
Appl. No.:
9/186731
Inventors:
Lemna J. Hunter - Corrales NM
International Classification:
G01L 700
US Classification:
73756
Abstract:
A device and method for sensing a change in differential pressure within a fluid flow is disclosed. In one embodiment, a differential pressure is induced in a flow of fluid through a conduit between first and second axially spaced locations. One side of a diaphragm, piston, or other differential pressure movably responsive member in a differential pressure housing is exposed to the pressure of the flow at the first location, while its opposite side is exposed to the the pressure of the flow at the second location. A extension or the like engages the diaphragm on its high pressure side and passes out through a wall of the differential pressure housing where it is mechanically interconnected with a switch, which in turn is operatively interconnected with a valve in the conduit. Sufficient movement of the diaphragm due to certain change in the differential pressure between the two sides of the diaphragm will physically move the extension which is engaged therewith, which in turn will physically move the switch to a position where a signal is provided to valve to adjust the flow characteristics through the conduit. These movements may be used to identify an underflow condition where the flow rate between the first and second locations is less than a desired flow rate, and/or to identify an overflow condition where the flow rate between the two locations is more than desired.
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Lemna J Hunter from Albuquerque, NM, age ~59 Get Report