Stolar
Research Corporation
, an advanced radio
geophysics company, develops a
family of proprietary technologies that use
electromagnetic radio waves in various
applications.
Raton, New
Mexico, Stolar’s home, is located in the
foothills of the Sangre de Cristo Mountains.
The nearby Raton Coal Basin has been mined
continually since the late 1880s. Coal mining,
one of the most dangerous industries in the
world, has fostered a hard-working community
here and has inspired Stolar’s mission to invent
products to improve both the safety and
productivity of mining.
In addition to
coal mining, Stolar’s primary technology focuses
on other types of mining and energy industries
and the American military. Seeing what cannot be seen, might
be a water-filled abandoned mine shaft or the
boundary of a coal seam. It might even
be a coal miner trapped by a mine explosion.
Our proprietary
core technologies are electromagnetic wave
detection and imaging transceivers (EDIT), which
enable superior detection and/or measurement
performance than competitive technologies such
as ground penetrating radar (GPR) and gamma
detectors, and radio imaging method (RIM) , a
lower frequency electromagnetic wave system that
identifies geological anomalies and underground
structures.
Prototype
Manufacturing
Stolar is in compliance
with IPC standards, and is in the process of
qualifying for ISO 9001 and ISO 9002
certifications. At our 18,000-square-foot
prototype manufacturing facility in Raton, we
design the primary electronic components for our
technology from the drafting of technical
drawings and modeling to the actual prototype
fabrication of the components. Our
programmers also write the software that runs
our electronics. We currently outsource
the manufacture of mechanical parts and related
subassemblies. Our work force has special
skills for testing our electronics , so we
assemble and test the finished prototypes in house, ensuring that everything
has a consistent high level of quality and
reliability. We also design, and assemble most of our
instrumentation in house.
Stolar operates an
18,000-square-foot engineering
facility in Raton, New Mexico. This facility
will be used to develop the proposed
technology for field testing.
Laboratory Testing Capabilities
Stolar has a
comprehensive testing laboratory consisting of
multiple pieces of equipment in each category,
functional in frequency ranges of 0 to 4 GHz and
capable of accurate measurements down to 160 dB.
All equipment is set up on an annual calibration
cycle in which Agilent is contracted to come
into the laboratory to recalibrate each piece of
equipment. No equipment is currently being
used which is not within approved calibration
limits. Available equipment includes
oscilloscopes, function/arbitrary waveform
generators, dual output dc power supplies,
signal generators, spectrum analyzers,
network/spectrum analyzers, S-parameter test
sets, two-channel digitizing oscilloscopes, LF
impedance analyzers, S-parameter network
analyzers, digital storage oscilloscopes, RF
impedance analyzers, and mainframe
oscilloscopes. Environmental and shock testing
equipment is also available.
Technology Testing Procedures
Stolar’s
standard testing procedures will be employed
during the proposed development work. All
Stolar hardware designs are initially evaluated
and tested using various simulation techniques
throughout the development process. Laboratory
testing is incorporated at specific increments
to confirm design findings and issues. All data
and findings are recorded in logbooks. As
designs mature, board level, module level, and
system level bill of materials, assembly
instructions, and testing procedures including
parameters of acceptance are written. Design
reviews are held throughout any development
effort. The testing procedures are streamlined,
are improved as a design reaches its final
stages, and are implemented in prototype
manufacturing.
Quality Control Protocols
Stolar has
established quality control procedures, has
existing readiness review processes
in place, and qualified for ISO 9000
certification in 2004. Specifically, all Stolar
critical prototype manufacturing processes are identified
and trials are established. Hardware audits
using drawing trees are undertaken to confirm
accurate drawings, schematics, and procedures.
Process order and necessary inspection points
are set up. Testing is required at the board
level, module level, and system level to ensure
adequate overall functionality to specifications
as well as prevention of system sensitivity
issues.
Quantitative
data are collected on yields and labor content. Monitoring of environmental conditions has been
instituted to report out-of-tolerance conditions
(e.g., temperature and humidity). Make-buy
decisions are reviewed as data on labor content
and yields become available. The continuing
review of these decisions offer substantial
opportunity for cost reduction and process
streamlining. Failure trapping is required to
be in place before rate requirements are
substantially increased. A formal process of
failure analysis with real-time feedback is
implemented as well to support on-going quality
operations. Serialization and configuration
control is employed to maintain differentiation
where necessary to meet control requirements.
Machining operations are separate from the
assembly area to ensure that quality is not
adversely affected in the electronics assembly
operations. Environmental screening (e.g.,
vibration and/or shock with temperature soak) is
used on 100% of prototype production until
learning can establish tailored and/or reduced
requirements. Ongoing studies establish the
space requirements against production
quantities. This practice is required and is
refined as results on spans and yields are
evaluated.
Controls have been established in the assembly area to ensure proper process and
quality control. Stolar has established a safe
and effective working environment, which
facilitates standardized execution of process
requirements. Efficiencies of scale are
realized as experience permits. High
reliability through miniaturization and
science-based assembly results from these
processes. Additionally, Stolar’s highly
qualified engineering team is on site to
interact in all phases
prototype development.