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Larry G Stolarczyk

from Albuquerque, NM
Age ~86

Larry Stolarczyk Phones & Addresses

  • Albuquerque, NM
  • 612 7Th St, Raton, NM 87740 (505) 445-3765 (575) 445-3765
  • Pittston, ME
  • Weldona, CO
  • 612 S 7Th St, Raton, NM 87740

Work

Company: Stolar companies Mar 1983 Position: Founder, chief technology officer

Education

School / High School: Unm Anderson School of Management 1974 to 1975

Resumes

Resumes

Larry Stolarczyk Photo 1

Founder, Chief Technology Officer

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Location:
Rochester, MI
Work:
Stolar Companies
Founder, Chief Technology Officer
Education:
Unm Anderson School of Management 1974 - 1975

Business Records

Name / Title
Company / Classification
Phones & Addresses
Larry G Stolarczyk
President
STOLAR, INC
Commercial Physical Research
848 Clayton Hwy  , Raton, NM 87740
7701 Innovation Way NE, Albuquerque, NM 87144
848 Clayton Rd, Colfax, NM 87740
333 Rio Rancho Dr NE, Albuquerque, NM 87124
(575) 445-3607
Larry G Stolarczyk
Incorporator
PASER SOLUTIONS, INC
848 Clayton Rd  , Raton, NM 87740
Larry Stolarczyk
Secretary
AVATARA ENERGY CORP
1042 S 2   , Raton, NM 87740
Larry G Stolarczyk
President, Director, CTO
STOLAR HORIZON, INC
Professional, Scientific and Techincal Servies · Other Professional/Scientific/Technical Services · Business Consulting Svcs Mfg Measure/Control Dvcs Mfg Misc Fab Wire Prdts Mfg Transformers Mfg Search/Navgatn Equip · Business Consulting Svcs Mfg Misc Fab Wire Prdts Mfg Search/Navgatn Equip Mfg Transformers Mfg Measure/Control Dvcs · Search and Navigation Equipment · Laboratories-Research & Develo
848 Clayton Rd   , Raton, NM 87740
848 Clayton Rd, Raton, NM 87740
7701 Innovation Way NE, Albuquerque, NM 87144
612 S 7 St, Raton, NM 87740
(575) 445-3607, (913) 422-5555, (505) 445-3607, (505) 445-9659

Publications

Us Patents

Landmine Locating System

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US Patent:
6473025, Oct 29, 2002
Filed:
Jan 15, 2002
Appl. No.:
10/046840
Inventors:
Gerald L. Stolarczyk - Raton NM
Larry G. Stolarczyk - Raton NM
Assignee:
Stolar Horizon - Raton NM
International Classification:
G01S 1388
US Classification:
342 22, 342 27, 342175, 342194, 342195, 34235701, 34235706, 102401, 102402
Abstract:
A landmine detection system comprises a ground-penetrating radar for probing the surface of the ground for landmines and other anomalies. The radar is swept back and forth across a lane while a user proceeds forward. A navigation sensor and processor keep track of all the parts of the lane that have been probed. A user display presents a visual graphic that represents the lane and the parts of it that have been probed. The user is then able to swing the radar to areas that are indicated as having been skipped in previous passes, e. g. , to get 100%. coverage.

Drilling, Image, And Coal-Bed Methane Production Ahead Of Mining

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US Patent:
6497457, Dec 24, 2002
Filed:
Jul 12, 2001
Appl. No.:
09/905552
Inventors:
Larry G. Stolarczyk - Raton NM, 87740
International Classification:
E21C 3900
US Classification:
299 12, 299 19, 175 50, 324338, 324351, 702 11
Abstract:
A coal mining operation begins by using directional drilling to bore several horizontal shafts through a coal deposit with its natural overburden still intact. Any methane gas permeating the coal deposit is pumped out and preferably sold as natural gas to commercial and residential customers, or used locally in support of mining operations. The methane gas evacuation continues until the concentrations are reduced to safe levels for mining. But before mining begins, ground penetrating radar equipment is lowered into the boreholes for electronic imaging studies of the coal deposit. One borehole is used for a transmitter and another for a receiver. Many measurements are made at a variety of frequencies and equipment positions within the boreholes. Such studies estimate the electrical conductivity of the surrounding material, and thereby give clues where and how much coal is actually deposited. Assessments of the coal reserve are then developed from this information, and used for business planning and mine engineering.

Method For Locating A Concealed Object

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US Patent:
6501414, Dec 31, 2002
Filed:
Apr 2, 2001
Appl. No.:
09/826402
Inventors:
G. Dickey Arndt - Friendswood TX
James R. Carl - Houston TX
Kent A. Byerly - Seabrook TX
Phong H. Ngo - Friendswood TX
Larry G. Stolarczyk - Raton NM
Assignee:
The United States of America as represented by the United States National Aeronautics and Space Administration - Washington DC
International Classification:
G01S 1300
US Classification:
342 22, 342194, 342 27
Abstract:
Apparatus and methods are disclosed for detecting anomalies in microwave penetrable material that may be used for locating plastic mines or pipes underneath the ground. A transmitter is positioned at a plurality of different positions above the ground. A microwave signal is transmitted that is stepped over a plurality of frequencies. At each position, a plurality of reflections are received corresponding to each of the plurality of frequencies that were transmitted. A complex target vector may be produced at each position that contains complex values corresponding to magnitude, phase, and time delay for each of the plurality of reflections received at that location. A complex reference data vector may be produced, either based on predetermined values or based on data from the received plurality of reflections. A comparison is made between the complex target vector and the complex reference data vector to produce a channel vector. In one embodiment, an operator may be applied to the channel vector such as a complex filter matrix or to add a complex conjugate.

Ground-Penetrating Imaging And Detecting Radar

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US Patent:
6522285, Feb 18, 2003
Filed:
Mar 28, 2001
Appl. No.:
09/820498
Inventors:
Gerald L. Stolarczyk - Raton NM, 87740
Larry G. Stolarczyk - Raton NM, 87740
International Classification:
G01S 1388
US Classification:
342 22, 342118, 342175, 342194
Abstract:
A ground-penetrating radar comprises a single resonant microstrip patch antenna (RMPA) that is driven by a three-port directional coupler. A reflected-wave output port is buffered by a wideband isolation amplifier and a reflected-wave sample is analyzed to extract measured values of the real and imaginary parts of the load impedance-the driving point impedance of RMPA. Each such port will vary in a predictable way according to how deeply an object is buried in the soil. Calibration tables can be empirically derived. Reflections also occur at the interfaces of homogeneous layers of material in the soil. The reflected-wave signals are prevented from adversely affecting transmitted-signal sampling by putting another wideband isolation amplifier in front of the input port of the directional coupler. A suppressed-carrier version of the transmitted signal is mixed with the reflected-wave sample, and the carrier is removed. Several stages of filtering result in a DC output that corresponds to the values of the real and imaginary parts of the load impedance.

Radio System For Characterizing And Outlining Underground Industrial Developments And Facilities

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US Patent:
6549012, Apr 15, 2003
Filed:
Jul 12, 2001
Appl. No.:
09/904902
Inventors:
Larry G. Stolarczyk - Raton NM, 87740
International Classification:
G01V 312
US Classification:
324337, 324329, 324334, 324344, 342459
Abstract:
Most mines and underground facilities employ standardized construction techniques and materials. Such also cannot avoid having some above ground openings to receive utilities, fresh air, supplies, etc. Those or other surface openings are also universally used to discharge ground water, wastes, and other materials. Typical underground facilities have abundant electrical wiring and power demands, both of which can be detected at the surface. Levees with leakage pathways also form electrical conductors. When properly illuminated with remotely generated electromagnetic (EM) radiation, many of these features will âglowâ or reradiate the radio energy in an electronic signature unique to the underground facility. Synchronized EM-gradiometer transponders are situated nearby on the ground surface to collect and analyze the âglowâ. Alternative transmitting devices further includes ways to generate the illumination, and computers for characterizing the return signatures.

Method And System For Radio-Imaging Underground Geologic Structures

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US Patent:
6593746, Jul 15, 2003
Filed:
Jan 15, 2002
Appl. No.:
10/047073
Inventors:
Larry G. Stolarczyk - Raton NM, 87740
International Classification:
G01V 312
US Classification:
324334, 324338
Abstract:
A coal bed anomaly detection and imaging system comprises a synchronous transmitter and receiver that are separated by a geologic structure with embedded and hidden anomalies. The transmitter sends out two signals from magnetic dipole antennas. Such signals are widely separated in frequency but synchronized internally in the transmitter to one another. The higher frequency is used to make phase shift and attenuation measurements at the receiver by synchronous detection. The lower frequency is used at the receiver to synchronize the receiver to the transmitter. The higher frequency signal is measurably affected by anomalies in the intervening geologic structure. The lower frequency signal is fixed low enough so it is not substantially affected by the intervening geologic structure. Geologic modeling tools are preferably downloaded by geoscientists to their personal computers. The total attenuation and phase shift measurements are plugged into a full-wave inversion code (FWIC) process.

Radar Plow Drillstring Steering

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US Patent:
6633252, Oct 14, 2003
Filed:
Nov 4, 2002
Appl. No.:
10/287039
Inventors:
Larry G. Stolarczyk - Raton NM, 87740
Gerald L. Stolarczyk - Raton NM, 87740
International Classification:
G01S 1388
US Classification:
342 22, 342 61, 342 70, 342175, 342194, 342195, 342196, 702 2, 702 6, 702 9, 175 24, 175 26, 324332
Abstract:
A radar-plow drillstring steering system comprises a steering plow and a measurements-while-drilling instrument for mounting just behind the drill bit and downhole motor of a drill rod. The instrument includes a radar system connected to upward-looking and downward-looking horn antennas and a dielectric-constant sensor. The steering plow includes four pressure pads radially distributed around the outside surface and their associated servo motors. A coordinated control of the pressure pads allows the steering plow to push the drillstring and drill bit up-down-left-right. The antennas and sensor are embedded in respective ones of the pressure pads and are used to electronically and non-invasively probe a coal seam to locate its upper and lower boundary layers. The dielectric-constant sensor provides corrective data for the up and down distance measurements. Such measurements and data are radio communicated to the surface for tomographic processing and user display.

Synchronous Radio-Imaging Of Underground Structures

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US Patent:
6744253, Jun 1, 2004
Filed:
Sep 30, 2002
Appl. No.:
10/259912
Inventors:
Larry G. Stolarczyk - Raton NM, 87740
International Classification:
G01V 312
US Classification:
324334, 324338
Abstract:
A coal bed anomaly detection and imaging system comprises a synchronous transmitter and receiver that are separated by a geologic structure with embedded and hidden anomalies. The transmitter sends out two signals from magnetic dipole antennas. Such signals are widely separated in frequency but synchronized internally in the transmitter to one another. The higher frequency is used to make phase shift and attenuation measurements at the receiver by synchronous detection. The lower frequency is used at the receiver to synchronize the receiver to the transmitter. The higher frequency signal is measurably affected by anomalies in the intervening geologic structure. The lower frequency signal is fixed low enough so it is not substantially affected by the intervening geologic structure. Geologic modeling tools are preferably downloaded by geoscientists to their personal computers. The total attenuation and phase shift measurements are plugged into a two-dimensional and three-dimensional full-wave inversion code (FWIC) process.
Larry G Stolarczyk from Albuquerque, NM, age ~86 Get Report