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As filed with the Securities and Exchange Commission on April 2, 2001

Securities And Exchange Commission
Washington, D.C. 20549
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FORM 10-K
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[ X ]

Annual

 

For the fiscal year ended December 31, 2000

[   ]

Transition Report Pursuant to Section 13 or 15(d) of the Securities Exchange Act of 1934

 

For the transition period from ___________ to ___________

Commission file number:  0-24027

ENERGY EXPLORATION TECHNOLOGIES

(Exact name of registrant as specified in its charter)

Nevada

 

61-1126904

(State or other jurisdiction of incorporation or organization)

 

(I.R.S. Employer Identification No.)

840 7th Avenue S.W., Suite 700, Calgary, Alberta, Canada T2P 3G2

(Address of principal executive offices) (Zip Code)

Registrant's telephone number, including area code:   (403) 264-7020

Securities registered pursuant to Section 12(b) of the Act:  None

Securities registered pursuant to Section 12(g) of the Act:  Common stock, par value $0.001 per share.

Indicate by check mark whether the registrant (1) has filed all reports required to be filed by Section 13 or 15(d) of the Securities Exchange Act of 1934 during the preceding 12 months (or for such shorter period that the registrant was required to file such reports) and (2) has been subject to such filing requirements for the past 90 days.

Yes      No   

Indicate by check mark if disclosure of delinquent filers pursuant to Item 405 of Regulation S-K (Section 229.405 of this Chapter) is not contained herein, and will not be contained, to the best of registrant's knowledge, in definitive proxy or information statements incorporated by reference in Part III of this Form 10-K or any amendment to this Form 10-K.   

The aggregate market value of the voting stock held by non-affiliates of the registrant as of March 29, 2001 was approximately $13,660,000 based upon the closing price per share of the registrant's common stock of $3.125 on that date.

The number of shares outstanding of the registrant's common stock as of March 29, 2001:  13,112,116 shares.

Documents Incorporated By Reference

Information required by Part III (Items 10, 11, 12 and 13) is incorporated into this annual report by reference to the registrant's definitive proxy statement to be disseminated in advance of its annual meeting of stockholders to be held later in fiscal 2001.

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The information set forth in Item 1 of this annual report, captioned "Business," is current as of March 29, 2001, unless an earlier or later date is indicated in that section. The information set forth in the sections of this annual report other than Item 1 is current as of December 31, 2000, unless an earlier or later date is indicated in those sections.

All references to "dollars" in this annual report refer to United States or U.S. dollars unless specific reference is made to Canadian or Cdn. dollars. For information relative to rates of exchange and currency conversion, see note 2(m)  to our consolidated financial statements.

PART I

ITEM 1.     BUSINESS

Overview

Energy Exploration Technologies ("we," "our company" or "NXT") is a technology-based reconnaissance exploration company which utilizes our proprietary, quantum physics-based, stress field detection or "SFD" remote-sensing airborne survey technology to quickly and inexpensively identify and high-grade oil and natural gas prospects. We are a publicly traded company whose common stock trades over-the-counter on the NASD Electronic Bulletin Board under the symbol "ENXT." Our principal executive offices are located at 840 7th Avenue S.W., Suite 700, Calgary, Alberta, Canada T2P 3G2, and our telephone number is (403) 264-7020.

We use our SFD technology to survey or reconnoiter large exploration areas from our survey aircraft at speeds of approximately 200 mph to identify and "high-grade" leads for further evaluation and potential drilling. Our SFD technology is a recently developed technology which we adapted for airborne survey operations and field tested for independent geologists and our joint venture partners during 1996 and 1997. We commenced SFD survey activities on a full commercial basis for our joint venture partners in 1998.

Our SFD technology affords us the relatively inexpensive ability to obtain near real-time analysis and interpretation of potential hydrocarbon accumulations in a matter of days or weeks, as compared to months and in some situations years in the case of the seismic methods currently employed by the oil and gas exploration industry for wide area exploration or reconnaissance. These cost and time advantages will ultimately enable us to effectuate potentially significant reductions in oil and gas exploration "finding costs." Finding costs include the cumulative costs of acquiring seismic, purchasing mineral rights, and drilling and completing exploration wells. The ability to reduce finding costs is an extremely important financial benchmark in the oil and gas industry, insofar as low finding costs represent a measure of an oil and gas company's ability to effectively and efficiently find new reserves and to generate cash flow.

We conduct our SFD reconnaissance exploration activities, as well as land acquisition, drilling, completion and production activities to exploit prospects identified using our SFD technology, through two wholly-owned operating subsidiaries: NXT Energy USA Inc. which focuses on United States-based exploration principally on behalf of our United States-based joint venture; and NXT Energy Canada Inc. which focuses on Canadian-based exploration on behalf of our Canadian-based joint ventures and for our own account. All reconnaissance exploration activities are conducted by NXT Energy USA and NXT Energy Canada using NXT-owned aircraft operated by our two wholly-owned aviation operation subsidiaries, NXT Aero USA Inc. and NXT Aero Canada Inc. NXT, in turn, concentrates on research and development efforts to improve the efficacy of our SFD survey system.

Corporate History

We were initially incorporated in Nevada on September 27, 1994 under the name "Auric Mining Corporation." In January 1996, we acquired all of the common stock of NXT Energy USA (then known as Pinnacle Oil Inc.) from its stockholders in exchange for our common stock. As consequence of this reverse acquisition, NXT Energy USA became our wholly-owned subsidiary and its stockholders acquired a 92% controlling interest in our common stock. Prior to this transaction we were a corporate shell conducting no active business, and NXT Energy USA was a development stage research and development enterprise holding world-wide rights to use what is now our SFD technology for hydrocarbon exploration purposes. Immediately after this transaction we changed our name to "Pinnacle Oil International, Inc," and subsequent to that, on June 13, 2000, changed our name to Energy Exploration Technologies.

Corporate Objective

Our corporate objective is to become an industry leader in technology-driven oil and gas exploration. Utilizing our unique and exclusive SFD technology, we believe we can provide competitive advantages to our joint venture partners not seen in the exploration business.

Business Strategy

Our primary objective at this stage of our development is to continue to statistically demonstrate and prove-out the efficacy of our SFD technology through the drill-bit on an appropriate number of representative prospects. Only by so proving our SFD technology to oil & gas industry explorationists-who are traditionally conservative, cautious and skeptical of new technologies-will we be able to achieve the industry market acceptance, and resultant access to the large amounts of capital to fund the exploration, land acquisition and drilling efforts, that will be necessary to fully exploit the commercial potential of our SFD technology.

Since September 1999 NXT has either participated with our joint venture partners in or carry a non-participatory interest in eighteen exploratory wells concentrated in two geographic regions, southwestern Wyoming and southern Alberta. The results of these drilling efforts have been mixed. The limited drilling results to date appear to validate the effectiveness of our SFD technology insofar as most of the wells drilled have encountered hydrocarbon bearing formations, although the utility of these results in empirically validating the SFD are complicated by a number of factors relating to play selection, such as the low porosity or tight sands. The wells have not, however, been demonstrated to date as satisfactory commercial successes to date for a variety of reasons. With respect to southwestern Wyoming, a number of drilled and cased wells have not yet been tied into gas pipelines, and a number of other drilled wells have not been completed, due to cost and distance factors. Moreover, a number of other prospects in this locale have not been developed due to environmental considerations. In the case of southern Alberta, while a number of our drilling efforts encountered commercial zones, these zones are in shallower horizons which NXT has been excluded from participating in pursuant to the terms of underlying drilling contracts entered into by our joint venture partners.

An additional factor that has adversely affected NXT's ability to prove-out our SFD technology through the drill bit has been the unprecedented drop and then unprecedented rise in oil and natural gas prices, and the adverse impact of those changes on our exploration programs. Specifically, during 1998, when oil prices dropped to historical lows, our joint venture partners were extremely cautious in acquiring land positions and commencing drilling projects due to poor drilling economics, notwithstanding the availability of land at low prices. Thereafter, during the period beginning in mid-1999 and continuing until today, land acquisition prices have rapidly increased to unprecedented levels as a result of the increase of oil and natural gas prices to historical highs. While our joint venture partners increased their activity level as a consequence of the better drilling economics attendant to higher oil and natural gas prices, their efforts to acquire drilling rights for many favorable SFD-qualified locations have been frustrated as a consequence of the intense competition and extraordinarily high prices required to acquire those rights. NXT and its joint venture partners have each, for instance, made lease bids they believed to be sufficiently aggressive in a number of areas defined by our SFD technology, but lost out to the successful bidder by factors ranging from 2X to 10X. As a result, we have not had the volume of drilling results we had hoped for over the past 18 months and, equally important, have been unable to acquire drilling rights for a number of our best SFD-qualified prospects.

A third factor is play selection. Decisions under our joint venture agreements relative to which areas to explore, which plays to drill, and which drilled wells to complete and tie-in are dependent upon the decisions of our joint venture partners, and in many cases revolve around geological/geophysical or economic considerations that are not necessarily coincident with NXT's primary objective for the test well to be a true and unambiguous test of our SFD technology. For example, a number of wells in which we have participated to date have been drilled at locations outside the optimum area selected by our SFD technology as the best location for a number of reasons. In some of these cases there was no choice as we were required to participate in a well with a third party to earn into the prospect. In other cases the decision was made based strictly upon geological or geophysical considerations factors unrelated to our SFD data. As alluded to above, some of the locations drilled were unconventional and technically difficult plays due to low porosity, while in other locations shallower producing zones were excluded as a condition to drilling the location.

Finally, the exploration and drilling process is, by definition, an expensive, time-consuming, complicated and risky process, even with the advantages afforded by our SFD technology. Also, while we believe we have taken great strides in developing our SFD technology, it nevertheless still remains in its infancy as a predictive tool, and further development is required with respect to improving the operational performance and abilities of the technology itself and the quality of the SFD data generated, as well as advancing the process of interpreting SFD data, in order to achieve the commercial potential of our technology. As such, advancements in both the operation of the technology and the interpretive process will be analogous to the development of seismic as a geophysical data acquisition and interpretation technique. These advances will only be achieved by further research and development efforts toward improving our SFD technology, and additional hands-on experience by our geological and geophysical staff in interpreting SFD data under a much wider variety of geological, geophysical and operational circumstances, and the development of detailed statistical databases of these results in order to identify trends and performance criteria and to otherwise quantify the interpretation process. For these reasons our joint venture partners, who are responsible for contributing the bulk of funds for the exploration, land acquisition and drilling operations under our joint venture agreements, have been extremely cautious in testing the technology through the drill-bit. These partners have also indicated, in view of the drilling results to date, that they will continue to be very cautious going forward pending further developments.

Based upon our recent experience, we now believe that the most effective strategy to attain our primary objective in proving out our SFD technology is twofold, as follows:

By taking control of the exploration, land acquisition and development process under selected circumstances as discussed above, NXT will attempt to ensure that the following objectives, which we consider to be lessons learned over the past year, are appropriately addressed:

This evolution in our business strategy to lead and take control of the exploration process in selected circumstances is a new development, as NXT has only recently put into place the geophysical staff necessary to augment our geological staff in order to properly evaluate prospects for acquisition and drilling. The major consideration in pursuing this revised strategy as compared to the previous strategy of letting our joint venture partners determine all exploration, land acquisition and drilling strategies is the perceived need to participate in both seismic and land acquisition costs. In the past we generally participated with our joint venture partners on a 22.5% and 77.5% working interest split, but without any obligation to participate in seismic costs. We will endeavor to continue to participate with our joint venture partners on the same basis, although our interest will likely be increased to 50% on some of the prospects we will control, and we may share seismic costs on the same basis on selected prospects. Once we have acquired drilling rights, actual drilling, production and marketing activities would be conducted by our joint venture partners or through contracted third parties.

It should be noted that prospects that are confirmed through exploratory drilling as containing commercial quantities of oil and gas may become immediately marketable based on the size of the estimated reserves. It is therefore not necessary to actually place production wells on-line to recognize some value of these reserves, and we may consider selling the reserves and associated drilling rights to third parties based upon a discounted cash flow formula derived from estimated reserves and other production and market factors. We also anticipate that we will have the similar ability, once our SFD technology is more widely demonstrated, to sell SFD prospects on the market, even if exploratory wells have not been drilled. We have, in fact, set up a mechanism under our joint venture agreements to dispose of lower-ranked SFD prospects which may have commercial value.

Due to the nature and early stage of development of our SFD technology and also due to the practices of the oil and gas industry and its experience and attitudes toward new and unproven technologies, the only practical way for NXT to further demonstrate our SFD technology, achieve industry acceptance and to generate revenues and profits is to participate in drilling projects either through our joint-venture partners or on our own account. We believe that we would need to participate in a minimum of 30 prospects in order to statistically prove-out the efficacy of our SFD technology. Since costs to acquire or conduct ancillary seismic, to acquire drilling rights, and to drill, case and complete wells and to tie-them into sales or gathering systems, are very expensive and can easily exceed $1 million per well, the overall cost to prove-out our SFD technology over at least 30 prospects will be fairly high and will require significant capital resources, particularly if NXT as opposed to our joint venture or other drilling partners is required to bear a significant portion or all of these costs. You should read that section of this annual report captioned "Management's Discussion And Analysis Of Financial Condition And Results Of Operations-Liquidity And Capital Resources-Capital Requirements Going Forward," for further information relating to NXT's current capital resources and the amount of funds it will require in order to facilitate our proposed fiscal 2001 drilling program.

Exploration Efforts

Our United States exploration efforts to date have been focused on the Greater Green River Basin in Wyoming and the Williston Basin in North Dakota. These exploration activities have been conducted under a joint exploration and development agreement with CamWest Exploration LLC, a Colorado-based exploration company. Under this agreement we conduct aerial surveys to identify prospects in exploration areas in the United States selected by CamWest.

Our Canadian exploration efforts to date have been focused on southern and central Alberta. The majority of these exploration activities have been conducted under an exploration joint venture agreement with Encal Energy Ltd., a Calgary-based exploration and production company. Under this agreement we conduct aerial surveys to identify prospects in exploration areas in Canada selected by Encal.

Over the past year we also demonstrated our SFD technology in parts of central and northwestern Alberta and northeastern British Columbia for two prospective joint venture partners, pursuant to agreements whereby they would pay all of our aerial surveys costs. We have reached material agreement with the first joint venture partner, a small independent public Canadian exploration company which has formally accepted nine prospects for development, and anticipate the joint venture agreement will be finalized and signed in the near future. The second prospective joint venture partner, a large independent public Canadian exploration company, declined to participate further pending additional statistical and drilling verification. We are currently in negotiations with a third prospective joint-venture partner, a small private independent Canadian exploration company, relative to conducting surveys in two basins in eastern Canada.

We have also conducted exploration, seismic and land acquisition activities in western Canada on a limited basis for our own account over the past one and one-half years, and recently accelerated this process. We anticipate developing these prospects through a joint venture with one of our Canadian joint venture partners.

From the inception of our commercial airborne survey activities in mid-1997 through the date of this annual report, we have flown over:

Of the 155 prospects we have tendered to our current joint venture partners:

Of the 12 prospects we have identified for our own account, we have entered into stand-alone agreements with our partners to acquire and develop one of these prospects. We are currently advancing the balance of these prospects using available seismic to help market these opportunities either to existing partners or industry participants.

The joint venture agreements we have entered into with CamWest and Encal generally entitle us to elect to receive either a capital investment and generally risk-free overriding royalty of 5% to 8% of oil or natural gas revenues received by the joint venture partner with respect to the prospect, or a working interest of up to 45% of the joint venture partner's net revenues with respect to the prospect. In any situation where we elect to receive this royalty, our joint venture partner will be responsible, at its own cost and risk, to acquire the necessary drilling rights and to acquire or conduct the necessary seismic for the prospect if it has not already done so, and to conduct all drilling, production and marketing activities necessary to exploit the prospect. In any situation where we elect to participate on a working interest basis, we must bear our share of the acquisition of mineral and drilling rights (if necessary), drilling and production costs incurred with respect to the prospect based upon our working interest percentage. Although we will bear our share of these costs, our joint venture partner will nevertheless remain responsible for acquiring or conducting all seismic and conducting and managing all drilling, production and marketing activities to exploit the prospect. Our joint venture partners are also required under the terms of their joint venture agreements to reimburse us for 100% of the expenses we incur in conducting aerial surveys for that partner.

Our recent practice with our joint venture partners has been to participate in selected prospects on a combination working interest/overriding royalty interest basis, typically a 22.5 working interest and a 4% overriding royalty. However, as previously discussed, NXT has recently evolved our business strategy to lead and take control of the exploration process in selected circumstances with respect to prospects we acquire for our own account. The major consideration in pursuing this revised strategy as compared to the previous strategy of letting our joint venture partners determine all exploration, land acquisition and drilling strategies is the need to participate in both seismic and land acquisition costs. In the past we generally participated with our joint venture partners on a 22.5% to 77.5% working interest basis, but without any obligation to participate in seismic costs. With respect to prospects we acquire for our own account we will endeavor to continue to participate with our joint venture partners on the same basis, although our interest will likely be increased to 50% on many of the prospects we will control, and we will share seismic costs on the same basis. In either case we will continue to earn a gross overriding royalty on production revenues. Once we have acquired drilling rights, actual drilling, production and marketing activities would be conducted by our joint venture partners or through contracted third parties. For further information regarding our joint venture partners and joint venture agreements, see "-Joint Venture Partners And Arrangements."

Drilling Results

The status of our current drilling and completion activities as of the date of this report is as follows:

United States

Our U.S. joint venture partner, CamWest, has drilled or participated in seven wells to date in the Green River Basin in southwestern Wyoming on three separate prospects-the Poblano/Juel Springs block, Gold Coast and Leucite Hills South. The Green River Basin is well-known for containing natural gas in marginally permeable tight sands, which ultimately makes extraction of gas in commercial quantities very difficult. Six of these wells (Poblano/Juel Springs and Gold Coast) targeted unconventional deep over-pressured gas sands, while the remaining well (Leucite Hills South) targeted conventional shallow gas sands.

All four wells drilled to date encountered over-pressured gas sands at depths to 13,300 feet that have very low permeability. Two wells-one each at Poblano and Juel Springs-were subsequently cased and completed as marginal gas producers based upon $2 per mmcf/d gas prices. The well completed at Poblano tested rates as high as 1.2 to 2.4 mcf/d, although a stabilized flow was not achieved due to production of extraneous water. While pressure gradients at our Poblano wells (approximately 0.70 psi/ft) appear to be higher than those typically found at Jonah (approximately 0.53 psi/ft), the overall quality of the Poblano reservoirs in terms of porosity and permeability appear to be slightly lower. The Juel Springs well also encountered higher than normal pressure gradients. The Poblano/Juel Springs pools are capable of producing from the Mesa Verde formation, a deeper interval than the producing Lance formation at Jonah.

Based upon the similarities between  Poblano and Jonah reservoir characteristics, CamWest has decided to follow the approach successfully used to develop Jonah. Specifically, we believe that the large increases in commercial production rates at Jonah over the past several years, ranging from an average of approximately one to two mmcf/d per new well at the commencement of development in 1994 to approximately five to six mmcf/d per new well today, can be primarily attributed to a strategy of selecting drilling locations through the identification of natural micro-fracturing of the productive reservoirs as identified from analysis of 3D seismic in conjunction with infill drilling results. In furtherance of this belief, CamWest decided in late summer to participate in a 144 square mile 3D seismic program, which we hope will enable it to delineate the fault and micro-fracture patterns propagated in Poblano's gas-charged reservoirs, as well as information regarding several other SFD prospects in the surrounding area. We believe that Poblano will have the potential, if satisfactory information is acquired through this pending seismic program, to also deliver commercial production results on a well by well basis.

Pending the completion and evaluation of the 3D seismic program, CamWest decided for cost considerations to delay the completion of the second and third wells it drilled on Poblano and the construction of a twelve-mile pipeline to tie all three wells into the Jonah gas gathering system that it had previously planned for the third quarter of fiscal 2000. Given the scope and complexity of the 3D seismic program, the relatively high costs to drill and complete wells due to the depth of the Mesa Verde group, and the possible need to utilize relatively new and expensive fracing techniques specific to that formation, we anticipate that the decision to continue development of this field will be not be made by CamWest until mid-to-late 2001 at the earliest. We have not ascertained the potential estimated or proven reserves of the reservoirs at the Poblano/Juel Springs block.

Since the drilling of the first test well, the operator has attempted to obtain a permit to drill a vertical test well on our recommended SFD prospect, however, the Bureau of Land Management has declined to grant the permit due to rugged surface geography. The operator continues to negotiate with the BLM with respect to this matter. If the BLM does not ultimately approve a vertical well, the operator would most likely have to drill a more expensive directional well to access the area. It should be noted that the operator now has reprocessed 3D seismic which infers enhanced porosity and permeability in the portion of the prospect recommended by NXT as compared to the location of the test well.

Canada

Encal has drilled or participated or holds an interest in eleven wells drilled to date in Southern Alberta on four separate prospect areas-Monarch, the Dalroy/Irricana block, Carbon and Parflesh. Monarch is located near Lethbridge, while the Dalroy/Irricana block, Carbon and Parflesh are all located in the same general area east of Calgary, Alberta, on lands held by a common mineral owner. As a condition to allowing Encal to drill test wells on its properties, the common mineral owner expressly excluded rights to all shallow gas on these three prospects under the terms of the farm in agreement.

Five of the wells encountered one or more commercial shallow gas reservoirs that were excluded from our earning under the terms of the farm in agreement with the mineral rights holder. Three of the wells, including two horizontal wells, were cased for potential gas production from the deeper Crossfield zone and suspended pending further completion activity by Encal. The Crossfield zone in each of these wells encountered uncommercial heavy oil with traces of natural gas. This condition is quite unexpected in this zone and is well beyond the resolution of both the SFD and 3D seismic. A fourth well intercepted a usually productive BQ channel; however, the channel was found to be shale filled and the well was abandoned after examining the initial well data. A fifth well encountered uncommercial gas and was abandoned, while a sixth well encountered gas and has been completed and is on production test. Encal also drilled a seventh well on the block in which NXT elected not participate, which also encountered uncommercial heavy oil and abandoned.

Theoretical Basis Of SFD Technology

What Is Our SFD Technology

Our SFD technology allows us to measure the variations in energies which we believe to be related to 'stressed' subsurface structures and hydrocarbon accumulations. By analyzing these field patterns, we are able to determine the probability of locating commercially viable deposits. The principal components of our SFD technology, the SFD sensors, are 'stand-alone' devices that incorporate principles of contemporary quantum theory in their operation.

What Is Quantum (Field) Theory And Its Applications

'Quantum theory' incorporates two bodies of physics¾ 'quantum mechanics,' which deals with wave¾ particle duality, superposition principle, uncertainty principle, wave function and probabilities; and 'special relativity' which examines the effects of space-time geometry and the relativity of motion. Traditional physics, known as ' classical theory,' cannot account for the structure and behavior of elementary particles, such as, for example, the lattice-vibration effects that arise from electrons colliding with atoms. In contrast, quantum theory is successful in dealing with these phenomena. It describes matter and energy interactions in the universe in terms of single indivisible units called 'quanta,' or in the singular 'quantum.'

According to the 'standard model' of quantum theory, which summarizes current understanding of elementary particles and the fundamental forces of nature, 'fields' are the basic make-up of the universe. Therefore, each elementary particle has an associated field with it. Little ripples in these fields carry information, energy and momentum from one area or particle to another.

Quantum theory describes matter as both waves and as particles. A direct consequence of the wave-particle duality is the 'uncertainty principle' advanced by Heisenberg. According to this principle, particles do not have definite locations, speeds, and paths as usually described by classical physics. Instead, quantum theory describes positions and other properties of particles in terms of the incidental events where the property will have a certain value. The way a quantum object behaves is defined by its 'wave function' developed by Schrödinger, allowing us to compute the 'probability' that certain events will be observed. Everything in quantum theory is based on probability. This simply means that one cannot predict an event definitely but can estimate the probability for the event to occur.

In spite of its success, there are situations where quantum theory is insufficient to give proper explanation. Under the umbrella of quantum theory, three fundamental forces-'electromagnetic,' 'weak,' and 'strong'-are successfully unified. However, it cannot adequately incorporate the fourth force, 'gravitation.' None of the branches of quantum theory can account for the discrepancies in masses of elementary particles. To address this issue, Higgs proposed a mechanism-known as 'massive gauge bosons'-by which particles acquire mass without breaking the symmetry laws of modern physics. 'Higgs bosons' have no intrinsic spin or electric charge and cannot be distinguished from empty space or vacuum. It is now proposed by physicists that the all-pervading Higgs scalar fields homogenize space and give rise to as many particles as there are many special scalar fields. In support, Peccei-Quinn symmetry and String theory predict the existence of 'composite scalar fields' that are massless at high energies. Presently, physicists are working on proving the existence of these complex scalar fields. They forecast a number of individual and composite Higgs fields and torsion fields, the latter of which relates to the quantum spin of empty space or vacuum. These issues have ramifications in our theoretical discussions with respect to the operation of our SFD technology and we interpret the role of Higgs fields as being direct and relevant.

Quantum theory has already been applied in the development of commercially available instruments and devices. The superconducting Quantum Interference Device or SQUID is a good example. It is the most sensitive detector of magnetic fields known so far. The application of SQUID technology ranges from medical diagnostics for detecting brain damage to performing special tests in relativity. Quantum lasers are another example of the successful commercial application of quantum theory. The major advantage of these lasers is that they can be tailored to emit light over a wide range of the spectrum-something that no other laser can do. In fact, anyone who owns a compact-disc player today uses this technology. By means of Molecular-Beam Epitaxy or MBE, initially developed at Bell Labs, layers of atoms can be deposited on a heated metal surface. This technology is essential in the fabrication of advanced semiconductor devices and integrated circuits including the quantum-well lasers. Computer scientists are moving towards embracing quantum-wire and quantum computers as the future of computing. Theoretically, quantum computers will perform calculation orders of magnitude faster than the best computers of today.

What Are Stress Fields And Their Relation To SFD Theory?

On a global and basinal scale, the earth's crust is under variable stress resulting from crustal plate (tectonic) movements that produce subsurface mechanical interactions. Mechanical stress is manifest in the macroscopic deformation of buried sediments and rock strata, the microscopic deformation of their constituent minerals, and ultimately on the subatomic level. It is well known that electrical energy balance in a crystal lattice is maintained by the alternation of equal and opposite charges. However, when the crystal lattice of a material, for example quartz, is suddenly subjected to stress, electromagnetic radiation will be emitted. Under sustained localized stress conditions, we believe that 'scalar energy fields' are also generated or modified at a quantum level. The word 'scalar' in its basic form means that the field carries magnitude but not direction, unlike vector fields resulting from conventional electromagnetic fields that carry both magnitude and direction. The generated or modified scalar energy fields are non-electromagnetic in nature, and we believe are related to Higgs and torsion fields.

Our SFD sensors are passive quantum transducers. We believe the operation of these devices to be based on quantum mechanical principles involving the capture and interaction, translation and conversion of certain scalar energy fields into electrical signals. Our SFD sensors have demonstrated the ability to date to directly detect scalar energy effects generated or modified at depths in excess of 15,000 ft below the surface, and at altitudes in excess of 10,000 ft. Surface cultural phenomena, such as a large body of water, do not affect the SFD sensors as long as the phenomena are in relative equilibrium. By generating and maintaining their own quantum fields, the SFD sensors are able to interact with these energy fields via quantum particles. The resulting interactions are converted and "recorded" as electrical signals.

We also believe that our SFD sensors act as non-linear 'chaotic' devices. Chaos theory characterizes chaotic devices as behaving in a complex manner, despite the fact that they can be described quite simply. By definition, these systems exhibit unpredictable dynamics that are sensitive to their initial conditions. Chaotic systems are mathematically deterministic-that is, they follow precise laws, but their irregular behavior can appear random to the casual observer. The response of our device to a phenomenon may diverge exponentially and much faster than that of a slower linear system. Once a response to a phenomenon is initiated, it will proceed until saturation or occurrence of the next phenomenon. Even though, within the confinement of the inherent restrictions of quantum mechanics, the number of possibilities of reacting to the same stimulus is deterministic, the device still behaves irregularly. Nevertheless, by cycling about an optimum function point, the behavior of a quantum device can achieve some stability in a way that never quite repeats itself.

Sustained geological stress will lead to the development of new conditions manifested in scalar energy fields of different origin that are related to Higgs and torsion fields. We postulate that the fields generated or modified are due to complex variations in quantum vibrations and vacuum interactions. These fields carry information, momentum and, in some cases, substantial energy. Although these energy fields appear scalar in nature, they can in effect act as vector fields under certain conditions.

What Are The Practical Application Of Stress Fields To Geology And Hydrocarbon Exploration?

When scalar energy fields interact with subsurface phenomenon they develop a variety of energy vortices. These vortices may dynamically increase and decrease in magnitude, and when traversed they significantly affect the quantum interactions in our SFD sensor. Based upon the high correlation of SFD responses to known oil and gas fields across North America which we have determined from several thousand surveys, it appears that these vortices are associated with 'mechanical' and 'hydraulic' stresses which we believe to be related to geologic structures and hydrocarbon accumulations.

Subsurface mechanical stresses are caused by directional tectonic forces that disrupt the stress and pressure equilibrium in buried strata. Sedimentary basins consisting of relatively undisturbed flat-lying or gently dipping sediments or sedimentary rock generally maintain a balanced pressure equilibrium and therefore exhibit low constant stress. Where tectonic forces have compressed, folded, faulted, or fractured the sedimentary package, a balanced mechanical equilibrium is not maintained, and these areas exhibit stresses in one or more directions depending upon the geology and the geometry of the deformation. In other areas where the regional strata is characterized by non-uniform geologic layering, particularly areas containing abrupt stratigraphic inhomogeneities such as buried reefs, channels and erosional edges, these appear to exhibit higher residual stress than the encompassing regional strata.

Subsurface hydraulic stresses are caused by the presence of fluids (liquids and gases), such as water, oil and natural gas, within the strata and, more particularly, the inherent and directional pressures resulting from the relative buoyancy of the fluids. A simple illustration of buoyancy is the effect of submerging a beach ball in a swimming pool. When a beach ball is submerged it attempts to rise to the top of the pool because the air in the beach ball is less dense than the surrounding water. This upward pressure, which displaces the water above the beach ball as it rises to the surface, is called buoyancy. Oil and gas exhibit the same properties when formed underground-they will percolate upwards through the strata by way of fractures or permeable strata until they either reach the surface or are stopped or "trapped" by a non-porous barrier, in which case they will continue to exert pressure against the trapping barrier.

While the response of our SFD sensor to known structurally trapped accumulations is more readily demonstrated, responses to stratigraphically trapped accumulations has lead us to infer that a hydraulic component of stress exists in certain trapping conditions. As a consequence, our SFD technology has practical applications as an oil and gas finding tool.

Operational Practices In Conducting SFD Surveys

How Does Our SFD Technology Interact With Subsurface Stress Fields?

The principal components of our SFD technology are passive transducers, which we refer to as the "SFD sensors," which we believe create and maintain quantum fields. As we fly our SFD technology over an exploration area, the SFD sensors interact with the varying stress fields that are generated by and within the subsurface strata. Our SFD technology interacts with these dynamic energy patterns and converts them into electrical digital signals which we record and later interpret using known geologic phenomena and oil and gas accumulations as analogies.

What Is Our SFD Survey System

Our SFD technology is comprised of the following components, which we collectively refer to as our "SFD survey system," used for the following functions:

All SFD sensors and the SFD unit and housing into which they are incorporated and contained are custom designed, fabricated and assembled in-house by our SFD research & development team, using micro-machined parts milled to specification in-house by our machinist. Our SFD research & development team is constantly experimenting with new configurations and materials in order to improve SFD sensor performance and reliability. One of the current projects of our research & development team is to expand the SFD unit to an eight SFD sensor array while further reducing the size of the entire unit.

How We Acquire SFD Data

In operational practice, our SFD survey system is flown in our survey aircraft over pre-selected exploration areas at varying altitudes and from different directions. As the SFD sensors interact with the constantly changing stress fields as we survey, they register a multitude of responses that we record in the form of electronic digital signals that resemble waveforms, which we refer to as "SFD signals." Our proprietary data acquisition system acquires and records these signals and marks their geographic location with global positioning satellites using "GPS" coordinates. These integrated signals are now referred to as "SFD data." The SFD signals are also displayed in real time on board our survey aircraft, which allows our on-board technical crew to immediately identify areas of particular interest for further investigation.

How We Interpret SFD Data

Once SFD datasets acquired from our airborne survey operations are returned to our home offices, our geological and geophysical interpretive staff process the data, plot the flight lines, and produce computer-generated base maps. We then commence the following screening and interpretation process:

In reaching its conclusion as to the coincidence of favorable geology and structural or hydrocarbon signals, our geological team will evaluate the following factors in the overall context of its understanding of the local geology:

Our geological team compares or "templates" the anomalous structural and hydrocarbon signals with those of known oil and gas accumulations since oil and gas exploration is, by its inherent nature, a "comparative" process. Geologists and geophysicists constantly compare data for exploration areas to that from known producing regions that are either nearby or exhibit similar subsurface characteristics. Our process is similar in that we compare the structural or hydrocarbon signals from our anomalies to those signals from a nearby producing field or other known fields that exhibit similar patterns.

The most common and reliable SFD signals are structural signals, which indicate the existence of potentially seismically-identifiable subsurface mechanical conditions such as structural traps, strata types and other geologic features and characteristics that commonly trap oil and gas accumulations ("seismically-identifiable structures"). Our experience is that our SFD technology recognizes seismically-identifiable structural traps and other geologic features with a high degree of accuracy.

While the rate of corroboration is fairly high, the mere existence of seismically-identifiable structures does not mean that oil and gas is present. Rather, it merely infers that oil and gas may be present, since these geologic features and characteristics represent common trapping mechanisms. Industry experience has proven, for example, that the majority of seismically-identifiable structures do not trap commercial quantities of oil and gas. This is what makes "wildcat" exploration-where test wells are drilled in unproven areas distant from existing known pools usually based upon seismic interpretations or geological mapping-so risky. For example, the current oil industry rate of success in drilling productive wells in true wildcat exploration areas, based upon the ability of the well to produce sufficient hydrocarbons to repay its drilling costs and provide some return on equity, is only 10% to 20%, or one well out of five to ten wildcat wells drilled.

The hydrocarbon signals are less common than structural signals. However, when hydrocarbon signals are present, they are complimentary to, and in some cases more probative than, our structural signals since:

The major drawback to date of our hydrocarbon signal is its relative inability on its own to indicate the depth of hydrocarbon accumulations or the number of oil and gas bearing zones, which we attempt to address through the templating process described above.

While we believe based upon our experience that our SFD technology is fairly effective in identifying oil and gas pools, and particularly large fields, this belief will only be proven by drilling results from a representative group of stratigraphic pools that do not carry structural signals.

What Happens When We Tender Recommended SFD Prospects To Our Joint Venture Partners

Once we tender a recommended SFD prospect to one of our joint venture partners, they conduct whatever conventional geological, geophysical and economic evaluations of the prospect they may deem prudent in making a decision to proceed with drilling. If the joint venture partner decides to drill a recommended SFD prospect, the prospect is characterized as an "accepted SFD prospect," in which case we make our elections relating to accepting an overriding royalty and/or participating in the drilling and production of the prospect through a working interest.

How Fast Can We Acquire And Interpret SFD Data

We conduct our SFD surveys at speeds of approximately 200 mph, and survey approximately 800 linear miles in a four-hour day of recording. For each day of recording, it takes our staff between one to two days of data processing and interpretation-including plotting flight routes, screening and analyzing anomalies, putting the anomalies in geologic context, and ranking the anomalies-to sufficiently identify and recommend the SFD prospects from that flight line. The actual amount of time required is ultimately determined by the following factors:

As a consequence, we are able to record and interpret approximately 800 linear miles of SFD data acquired in one SFD survey flight over a period of only a few days at a cost of $5 to $10 per mile. By way of comparison, traditional land-based seismic crews record up to five linear miles of 2D seismic per day, depending on acquisition parameters, at a cost of approximately $5,000 to $20,000 per mile. Two or more weeks are then required to process the data, followed by another several weeks for interpretation. As a result, it can take a minimum of six months to record and interpret 1,000 linear miles of new 2D seismic data, at a total cost of $5 million to $20 million. Greatly adding to these direct seismic expenses are the obvious opportunity costs of allowing aggressive competitors with similar seismic capabilities an equal chance to image oil and gas accumulations during the same six month interpretation period. With our SFD technology, opportunity costs due to time lag are negligible.

We identify approximately twenty SFD leads on average for each four-hour day of surveying, and ultimately tender, on average, two or 10% of these leads to our joint venture partners as recommended SFD prospects for further evaluation. The SFD prospects which we tender can be pool to field-sized targets that could require two to ten wells or more to exploit depending upon accumulation. At our current projected annual rate of six to eight survey days per month for ten months of airplane availability, we anticipate we can identify 120 to 180 recommended SFD prospects per year assuming no excessive downtime. We anticipate that we will increase our monthly flying rate at some future date as we increase our efficiencies, which would result in a corresponding increase in the number of recommended SFD prospects we identify. The actual number of these recommended SFD prospects that are accepted and ultimately drilled by our joint venture partners will, however, be dependent upon any number of competitive, geological and environmental variables.

Longer-Term Issues That Effect The Timing Of SFD Surveys And Interpretation

Before we tender a recommended SFD prospect to a joint venture partner, we will typically interpret two or more SFD data sets for the prospect, which requires in turn a corresponding number of SFD survey flights to acquire the data. If we are not able to acquire sufficient quality SFD data for an SFD lead from a single survey project, then we will be able in many instances to evaluate this information and tender the recommended SFD prospect to the joint venture partner in a matter of days following commencement of the interpretation process. However, in many cases we must perform additional survey flights over a target zone at a later date due to a number of factors, including delays attributable to weather, a need to acquire more definitive SFD data, and requests by the joint venture partner to further define the prospect or its surrounding area. Also, since we acquire SFD data during our entire flight rather than limiting the data acquisition process to our targeted zones, we typically encounter new SFD leads outside these zones which will require additional SFD data for their further evaluation. It may take several weeks or even months to perform follow-up surveys on these SFD leads due to impending survey and interpretation obligations to current joint venture partners, as well as weather conditions which may impede our ability to fly. We anticipate that a number of these timing issues will be addressed to the extent we are able to augment our current operational capacity with additional survey aircraft and interpretation staff.

Longer-Term Issues That Effect The Timing Of Land Acquisition And Drilling

We believe that our joint venture partners will not only be more successful in their drilling programs as a result of their reliance on our SFD technology, but also be capable of accessing superior opportunities more quickly than their competitors. However, the time it may take for a joint venture partner to get to the drilling stage of an SFD prospect can still be lengthy depending upon any number of factors, including the following:

Also, our joint venture partners might be required, in the case of a farm-in, to first participate in the drilling of a location outside of our prospect in order to earn the right to later drill at the site of the prospect. This is done occasionally to earn valuable acreage "through the drill bit."

Our Business And Geographic Segments

We currently operate in only one business segment, oil and natural gas exploration, insofar as we intend to develop all oil and natural gas exploration prospects identified using our proprietary "SFD" remote-sensing airborne survey technology either directly for our account or indirectly for our account through working interest or overriding royalty interests through our joint venture partners. We do not currently sell or market our SFD data as a separate product to third parties. For geographical segment information, see note 15 to our consolidated financial statements included in Item 14 of this annual report.

Joint Venture Partners And Arrangements

Canadian Exploration Joint Venture With Encal Energy Ltd.

Our Canadian joint venture partner is Encal Energy Ltd., located in Calgary, Alberta, Canada. Encal is an intermediate Canadian exploration company listed on the Toronto and New York Stock Exchanges, which has recently reached an agreement to be acquired by Calpine Corp. As of December 31, 2000, Encal had total assets of Cdn. $1.11 billion and 154.2 million boe of total proved reserves. For 2000, Encal averaged 17,934 barrels per day of oil and natural gas liquid production and 167 million cubic feet per day of natural gas production.

Our current relationship with Encal is governed by the terms of an Exploration And Joint Venture Agreement entered into in September 1997 and which, pursuant to an extension agreed upon in May 2000, expires on March  31, 2001. Discussions relating to the extension of this agreement are currently underway between NXT and Encal. The material terms of the current joint venture agreement with Encal are summarized as follows:

It should be noted that as of the date of this annual report our company and Encal are not strictly following the prospect tendering and prospect evaluation time periods mandated in the Encal joint venture agreement insofar as we are currently working on the processes inherent in meeting these periods due to the evolving nature of the SFD identification and interpretation processes.

United States Exploration Joint Venture With CamWest Exploration LLC

Our United States-based joint venture partner is CamWest Exploration LLC, a privately held oil and gas exploration company located in Denver, Colorado, and McKinney, Texas. CamWest is principally owned by Stephens Group, Inc., a private company headquartered in Little Rock, Arkansas, which invests primarily in energy, media, telecommunications and investment banking companies, and which has invested $8.5 million in our company through CamWest's affiliates.

Our current relationship with CamWest is governed by the terms of a Joint Exploration And Development Agreement which we entered into in April 1998, and which expires in March, 2003. This agreement was originally entered into with an affiliate of CamWest, CamWest Limited Partnership. However, CamWest Limited Partnership assigned its rights and obligations under the joint venture agreement to CamWest on January 29, 1999, in order to establish an entity dedicated solely to SFD exploration and drilling activities.

The material terms of the joint venture agreement with CamWest are as follows:

It should be noted that as of the date of this annual report our company and CamWest are not strictly following the prospect tendering and prospect evaluation time periods mandated in the CamWest joint venture agreement insofar as we are currently working on the processes inherent in meeting these periods due to the evolving nature of the SFD identification and interpretation processes. We are also using a combination working interest/overriding royalty election in lieu of that specified in the CamWest joint venture agreement.

Competition

Since we use our SFD technology for wide-area oil and gas reconnaissance exploration, our "competition" would generally be described as other technologies used for wide-area oil and gas reconnaissance exploration. The principal competitive technology in this regard would be seismic, which is well accepted in the industry and has, in fact, been used since 1919. While there are numerous industry competitors of all sizes which offer seismic services, the largest industry competitors to our knowledge are Baker Hughes Inc., Schlumberger Limited, Compagnie Generale de Geophysique, S.A, Seitel, Inc., Veritas DGC Inc. and Petroleum Geo-Services A.S.A.

There are also a number of other technologies used in the industry for "passive" wide-area oil and gas reconnaissance exploration, including aeromagnetic, gravity, ground or surface radar, satellite surveys, telemetrics and spectrum analyzers, however, we do not believe that any of these technologies have been accepted in the industry as a highly predictive general exploration tool.

To our knowledge there are no other companies in the oil and gas exploration industry who commercially employ any quantum physics-based technology similar to our SFD technology.

While the technologies noted above are competitive to ours in the sense that all are used for wide-area reconnaissance exploration, you should note that there is no direct competition in the sense that we do not offer the use of our SFD technology to the industry on a fee-for-service basis as is ordinarily the case with respect to the providers of these other technologies. Consequentially, we do not have any customers for our SFD technology other than our two present joint venture partners.

Employees

As of December 31, 2000, we had 22 full-time employees and one part-time employee providing services in one or more of the following areas:

None of our employees are covered by collective bargaining agreements. We have employment contracts with our four senior executives and professional geologists and geophysicists. We believe we have a favorable relationship with all of our employees.

Research and Development

Our research and development activities to date have focused on developing, improving and testing our SFD survey system and related components. Our research and development expenses amounted to $368,249, $272,489 and $57,823 for our 2000, 1999 and 1998 fiscal years, respectively. Our research and development budget for fiscal 2001 is $180,000.

Manufacturing Capacity and Suppliers

We are not dependent upon any third party contract manufacturers or suppliers to satisfy our technology requirements. Our SFD sensors and the SFD unit in which they are incorporated are custom designed, fabricated and assembled in-house by our SFD research & development team, using micro-machined parts milled to specification in-house by our machinist. Our in-house research & development team and machinist also design, fabricate and assemble the specialized racks used to hold our data acquisition equipment on our survey aircraft, as well as specialized pivoting inertial platforms for the SFD unit itself which are necessary to dampen vibration and turbulence during aerial survey missions and adjust for g-forces and other effects associated with turning and other in-flight maneuvers. All materials and components used are readily available. The customized software used in our data acquisition system to collect and process SFD signals are written and modified in-house by our computer programmers and, in some cases, by outside consulting programmers with whom we have long-standing relationships. The computer hardware we use in SFD survey system (other than the SFD unit), and the balance of the computer software we use, are all readily available from retail or wholesale sources.

Subsidiaries

We have four wholly-owned operating subsidiaries:  NXT Energy USA Inc. (formerly known as Pinnacle Oil Inc.) and NXT Aero USA Inc., Nevada corporations formed on October 20, 1995 and August 28, 2000, respectively; and NXT Energy Canada Inc. (formerly known as Pinnacle Oil Canada Inc.) and NXT Aero Canada Inc., federal Canadian corporations formed on April 1, 1997 and October 30, 2000, respectively.  NXT Energy USA focuses on United States-based exploration and NXT Energy Canada focuses on Canadian-based exploration. All reconnaissance exploration activities are conducted by NXT Energy USA and NXT Energy Canada using NXT-owned aircraft operated by NXT Aero USA Inc. and NXT Aero Canada, respectively. NXT, in turn, concentrates on research and development efforts to improve the efficacy of our SFD survey system.

Governmental And Environmental Regulation

SFD Survey Flight Operations

The operation of our business, namely, conducting aerial SFD surveys and interpreting SFD data, is not subject to material governmental or environmental regulation with the exception of flight rules promulgated by the Federal Aviation Administration and Transport Canada governing the use of private aircraft, including rules relating to low altitude flights.

Oil And Gas Exploration And Development Projects

The oil and natural gas industry in general is subject to extensive controls and regulations imposed by various levels of the federal and state governments in the United States and federal and provincial governments in Canada. In particular, oil and gas exploration and production is subject to laws and regulations governing environmental quality and pollution control, limits on allowable rates of production by well or proration unit, and other similar regulations. Laws and regulations generally are intended to prevent waste of oil and natural gas; protect rights to produce oil and natural gas between owners in a common reservoir, control the amount of oil and natural gas produced by assigning allowable rates of production, and control contamination of the environment. Environmental regulations affect our operations on a daily basis. Public interest in the protection of the environment has increased dramatically in recent years. Drilling in certain areas has been opposed by environmental groups and, in certain areas, has been restricted. We believe that the trend of more expansive and stricter environmental legislation and regulations will continue.

We do not expect that any of these government controls or regulations will affect projects in which we participate in a manner materially different than they would affect project of similar size or scope of operations. All current legislation is a matter of public record and we are not able to accurately predict what additional legislation or amendments may be enacted. Governmental regulations may be changed from time to time in response to economic or political conditions. Any laws enacted or other governmental action taken which prohibit or restrict onshore and offshore drilling or impose environmental protection requirements that result in increased costs to the oil and gas industry in general would have a material adverse effect on our business, results of operations and financial position.

Operating Hazards

SFD Survey Flight Operations

The operation of our SFD survey aircraft is subject to the usual hazards incident to general and low level flight operations. These hazards can cause personal injury and loss of life, as well as severe damage to and destruction of property. While we maintain insurance coverage against some, but not all, operating risks associated with the operation of our aircraft, we cannot predict the continued availability of insurance coverage or the availability of insurance at premium levels that justify its purchase, nor can we give any assurance that any claim would not exceed our policy limits. If we were unable to procure insurance for our flight operations at an acceptable cost, the occurrence of a significant adverse aircraft accident not fully insured or indemnified against could have a material, adverse effect on our business, financial condition and operating results. Similarly, a judgment or settlement in excess of our policy limits could also have a material, adverse effect on our business, financial condition and operating results.

Oil And Gas Exploration And Development Projects

The oil and gas exploration and development projects in which we participate through our joint venture partners will also be subject to the usual hazards incident to the drilling of oil and gas wells, including the risk of fire, explosions, blow-out, pipe failure, casing collapse, abnormally pressured formations and environmental hazards such as oil spills, gas leaks, ruptures and discharges of toxic gases. In addition to the foregoing, offshore operations are subject to the additional hazards of marine operations, such as capsizing, collision and adverse weather and sea conditions. These hazards can cause personal injuries or loss of life, severe damage to or destruction of property, natural resources and equipment, pollution or other environmental damage, clean-up responsibilities, regulatory investigation and penalties and suspension of operations.

The project operator will, in accordance with prevailing industry practice, maintain insurance against some, but not all, of these risks. The insurance maintained by the project operator generally would not cover claims relating to failure of title to oil and gas leases, trespass during survey acquisition or surface damage attributable to seismic operations, or business interruption, nor would it protect against loss of revenues due to well failure. There can be no assurance that any insurance obtained by the project operator covering claims related to worker's compensation, comprehensive general liability for bodily injury and property damage, comprehensive automobile liability and pollution, cleanup, underground blowout and evacuation will be adequate to cover any losses or liabilities which may be incurred within projects in which we participate. We also cannot predict the continued availability of insurance coverage or the availability of insurance at premium levels that justify its purchase.

Since we do not act as operator on any projects in which we may participate, we are dependent upon our partners to conduct operations in a manner so as to minimize these operating risks.

In cases where we have direct liability as a result of our participation on a working interest basis, the failure or inability of the project operator to procure insurance at an acceptable cost or the occurrence of a significant adverse event not fully insured or indemnified against could have a direct material, adverse effect on our business, financial condition and operating condition. In these cases our exposure will be commensurate with our participation percentage .

While we would have no direct liability in cases where our participation is limited to an overriding royalty interest, the failure or inability of the project operator to procure insurance at an acceptable cost or the occurrence of a significant adverse event not fully insured or indemnified against could have an indirect material, adverse effect on our business, financial condition and operating results to the extent it adversely affects our joint venture partner's ability to complete current projects or explore for and develop additional projects.

Our SFD Technology License

Our rights to use our SFD technology arises from an SFD technology license pursuant to which we were granted the exclusive worldwide right to use, possess and control the SFD for hydrocarbon identification and exploration purposes and any SFD data derived from that use for the same purpose pursuant to a license granted to us by Momentum Resources Corporation, which is the owner of the SFD. We own and control all of the data acquisition, processing and interpretation systems used with the SFD for hydrocarbon identification and exploration purposes.

The terms of our license are set forth in an SFD License Agreement dated December 31, 2000, which supercedes prior more restrictive licenses granted on August 1, 1996 and April 3, 1998. Momentum Resources is a Bahamas corporation which is indirectly owned and controlled by Messrs. George Liszicasz and R. Dirk Stinson, who were also parties to the license. Mr. Liszicasz, who is the inventor of the SFD technology, is also our largest stockholder and the Chief Executive Officer and a director of our company. Mr. Stinson is our second largest stockholder and a past director and officer.

The material terms of the SFD License Agreement, as most recently amended, are summarized as follows:

We May Be Unable To Protect Our Proprietary Rights To Our SFD Technology

As noted above, we have the exclusive right to use, possess and control SFDs and SFD data for hydrocarbon exploration pursuant to the terms of our SFD License Agreement with Momentum Resources. While Momentum Resources claims common law ownership of the SFDs, it has not obtained patent or copyright protection for these rights. Based in part on an opinion of patent counsel, Momentum Resources and our company each believe that the disclosure risks inherent in patent or copyright registration far outweigh any legal protections which might be afforded by such registration. In the absence of significant patent or copyright protection, we may be vulnerable to competitors who attempt to imitate the SFDs, or to develop functionally similar technologies.

Although we believe that we have all rights necessary to market our services without infringing upon any patents or copyrights held by others, we cannot give you any assurance that conflicting patents or copyrights do not exist. We rely upon trade secret protection and confidentiality and non-disclosure agreements with our employees, consultants, joint venture partners and others to protect our proprietary rights. Furthermore, we do not believe, were Momentum Resources to apply for and receive patent protection, that the patent would necessarily protect Momentum Resources or our company from competition. Momentum Resources and our company therefore anticipate continued reliance upon contractual rights and on common law to protect our trade secrets. The steps taken by our company and Momentum Resources to protect our respective rights may not be adequate to deter misappropriation, or to preclude an independent third party from developing functionally similar technology.

We cannot give you any assurance that others will not independently develop substantially equivalent proprietary information and techniques, or otherwise gain access to Momentum Resource's or our trade secrets, or otherwise disclose aspects of the SFD device, or that we will be able to meaningfully protect our trade secrets. We also cannot give you any assurance that Momentum Resources or our company will not be required to defend against litigation or to enforce or defend intellectual property rights relating to SFD devices. Legal and accounting costs relating to prosecuting or defending intellectual property rights may be substantial.

ITEM 2.      PROPERTIES

Facilities

Our principal executive office and research & development facilities are located at Suite 700, Phoenix Place, 840 7th Avenue S.W., Calgary, Alberta, T2P 3G2. These facilities, consisting of 13,325 square feet, are leased for a five-year term extending through January 31, 2003. Our combined obligations for base lease payments and building operating cost and other pass-through items under this lease as of December  31, 2000 is Cdn. $21,418 per month, which translates into U.S. $14,283 per month based upon the closing conversion rate as of that date. We have the option under our lease, at the expiration of the five year term, to renew the lease if we have had no defaults under the lease. We believe that these facilities are adequate for our needs for the near future. We also maintain executive office facilities in Las Vegas, Nevada, for United States operational requirements, which we rent on a quarterly basis.

We also maintain hangar, maintenance and office facilities for our survey aircraft and aircraft operations consisting of 14,513 rentable square feet. These facilities are leased under a five-year operating lease which expires May 31, 2005. Our obligations under this lease as of December 31, 2000 is Cdn. $13,345 per month, which translates into U.S. $8,900 per month based upon the closing conversion rate as of that date. The monthly lease obligation increases three percent annually commencing June 1, 2002 until the end of the lease term.

We believe that our current facilities are adequate for our needs for the foreseeable future.

Survey Aircraft

NXT owns two aircraft, a twin-engine turbo-powered Piaggio P180 Avanti aircraft we acquired in April 2000 which we use as our principal SFD survey aircraft, and a twin-engine Aerocommander 680 aircraft acquired in November 1998 which we use for research & development activities and as our back-up SFD survey aircraft. NXT has upgraded these aircraft with specialized pivoting inertial platforms for our SFD units, specialized equipment racks for our data acquisition computers, additional electrical systems necessary to contain and operate our SFD survey system, and additional navigational and safety systems necessary for the conduct of low level survey operations.

Petroleum Properties

We have no producing properties or oil and gas revenues or proven reserves for any of our most recent three fiscal years ended December 31, 2000. For information concerning our oil and gas properties, see that section in Item 1 of this annual report captioned "Business-Exploration Efforts."

ITEM 3.      LEGAL PROCEEDINGS

As of the date of this annual report, there are:

ITEM 4.      SUBMISSION OF MATTERS TO A VOTE OF SECURITIES HOLDERS

No matters were submitted to a vote of our security holders during our fourth quarter ended December 31, 2000.

PART II

TEM 5.      MARKET PRICE OF AND DIVIDENDS ON OUR COMMON STOCK AND RELATED STOCKHOLDER MATTERS

Market Information

Our common stock trades over-the-counter on the NASD OTC Bulletin Board under the trading symbol "ENXT." The following table lists, by calendar quarter, the volume of trading and the high and low sales prices of our common stock on the NASD OTC Bulletin Board for our three most recent fiscal years ended December 31, 2000. You should note that we changed our symbol from "PSFD" to "ENXT" effective June 16, 2000, following the change in our corporate name.

                                      Sales Price  

Period                               

         Volume

 

              High

 

              Low

 

2000:

           

Fourth Quarter

577,400

 

$ 21.000

 

$ 3.875

 

Third Quarter

626,600

 

33.000