wpp overview

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WASTE TO ENERGY

W P P E N E R G Y C O R P 2 5 2 M a d i s o n N e w Y o r k N Y 1 0 0 1 2

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ADNVANCED TECHNOLOGY WPP Enenrgy Corp is a world leader in all type of waste to energy power generation industry, using the latest modern technologies, our facilities has no chimney or stack all gases and fumes are recycled back to the system gaining extra 18% efficincy. Visit our website for information at www.wppenergy.com

WPP NEXT WTE MODERN POWER GENERATION

WPP ENERGY CORP World leaders in waste to energy technologies ____________________________________________________________________________

1 financial plaza Florida 33395 Tel 516 806 6056 Email [email protected] Web www.wppenergy.com

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COMPANY OVERVIEW

WPP Energy Corp. is a world leader in the safe and environmentally sound conversion of

municipal solid waste - and other renewable waste fuels - into clean energy. Our waste-to-

energy facilities provide safe municipal solid waste disposal for towns and cities around the

world. These facilities deliver clean, renewable electric power to major utilities for

distribution to hundreds of thousands of homes and businesses.

FIELDS OF ACTIVITIES OVERVIEW

As a large firm of consulting engineers, we are active in many fields and our services are

available in all parts of the world. In addition to development banks, commercial banks,

private investors and industrial enterprises, our clients principally include public institutions

such as ministries, local government agencies and research institutes. Another major circle

of clients is composed of public- and private-sector infrastructure service providers such as

power companies, municipal utilities, water and sanitation companies, waste disposal

enterprises and transport companies.

We also operates a variety of independent power plants designed to generate electricity

using an assortment of fuels, including waste wood, tires, waste coal and natural gas. In

addition to producing electricity, some of these facilities also produce steam sold to nearby

government and commercial establishments. WPP is world leading provider of comprehensive waste management, recycling and environmental services worldwide.

BUSINESS OPTIONS

WPP Environmental Systems designs, builds, owns and operates waste disposal facilities

using a time tested gasification process that converts wastewater and industrial sludge's

into renewable green thermal energy. Our mission is to provide municipalities and industrial

sites with a unique system that is safe, cost effective and more environmentally friendly

than traditional methods of waste disposal. No more disposals by land spreading or land filling.

WPP GASIFICATION TECHNOLOGIES

Gasification is not incineration. Incineration is the burning of fuels in an oxygen-rich

environment, where the waste material combusts and produces heat and carbon dioxide,

along with a variety of other pollutants. WPP Gasification is the conversion of feedstocks

into their simplest molecules - carbon monoxide, hydrogen and methane forming a syngas

which is used for generating electricity power and recycled valuable products such as metal, glass, paper, plastic, rubber, by destructing waste down to zero.



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WPP ADVANCED TECHNOLOGY WPP Energy Corp. has a patent pending with the U.S. Patent Office for what the company

believes is the most efficient waste to energy system in the world. It provides a combination

of an outstanding waste separation subsystem, a very efficient pyrolysis subsystem for

producing synthetic generator driver fuel, a new low cost and high output generator driver

and the most efficient generator subsystem that WPP Energy Corp. management has ever

seen. Together, these subsystems form a waste to energy system that out performs every

other waste to energy system in the marketplace today. Other technology is also cutting

edge.

WPP OPIMIZED PLANT DESIGN The proposed waste management, generation of electricity, potable water and recyclable

materials consists of the following subsystems. Every one of these subsystems has been

used in waste to energy plants for at least five years and several for over twenty years.

Their capability and reliability is beyond question. WPP Energy Corp. has combined these

various subsystems in a new way to create a WTE plant that is more efficient, has virtually

zero pollution and provides an array of products desirable for use locally.

The following is a list of these plant operations components:

Waste handling

Separation of combustible from non-combustible materials

Non-combustible waste separation and recycling

Pyrolysis gasification

Primary electricity generation

Waste heat recovery and secondary electricity generation

Production of bio-char

Conversion of polluted and/or salt water into potable water

Flue gas treatment, if required

Residue treatment, if required

Waste handling Waste handling involves taking the waste delivered to the plant by the waste pick up

companies and putting it into the plant processing system. This subsystem utilizes scales to

weigh the waste and transfers the waste from concrete pits where it has been deposited by

the garbage trucks to the plant hopper using specialized cranes with waste grapples.

The process is fairly standard regardless of the type of WTE plant being used. Current waste

handling technology has been used for at least twenty years. Once the waste is in the plant



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process, it is transported by conveyors. The block diagram above provides a description of

how the waste material is processed once it enters the plan system.

Materials sorting and separation WPP Energy Corp. uses a multi-treatment sub-system to separate non-flammable from

flammable materials. The process begins by sorting non-flammable materials from the

waste stream until only the flammable materials are left. Flammable materials are delivered

to the pyrolysis gasification subsystem. The non-flammable materials are sorted according

to ferrous metals, non-ferrous metals and glass using the equipment shown on the following

pages.

Separation of ferrous metals from other materials Electromagnetic drum system for separating ferrous metals - Designed to be fed from

underneath, the axial pole electromagnetic drums are the best in-line solution for superior

ferrous metal recovery at high production rates. In addition, to strong drum shells, limiting

ring, bearing housing and adjustment arm designs, the axial pole system flips and cleans

the scrap before releasing it.

Electromagnetic drum system for separating ferrous metals

Electromagnetic Drum System



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Separation of aluminum from other materials The Eddy Current Separator – Eccentric Pole System Technology shown below uses an

eccentric rotor that is self-cleaning and can be adjusted for the best performance given a

specific waste stream. High-quality neodymium magnets, a thin conveyor belt and non-

conductive drum shell maximize separation forces. This system is especially efficient in

sorting aluminum cans and other coarse-grained aluminum from impure composites.

Eddy Current Separator

The Magnetic Head Pulley removes tramp iron from the remaining waste stream after

treatment from the Electromagnetic Drum System and the Eddy Current Separator.



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Magnetic Slag Minerals Wood Chips Glass Machine

Induction sorting system ejects non-ferrous metals and sort’s stainless steel sorters can

with a combination of smart sensors and computer-controlled air jets, induction detect and

eject any metals quickly and efficiently. When configured with an optical selective sensor, it

can separate remaining stainless steel from other non-ferrous metals.



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Induction Sorting System

Color Sorting System

A color camera recognizes distinct differences in color, shape or size in the non-ferrous

material to be separated. The material is compared on the built-in feeder conveyor against

shapes and colors for specific non-ferrous materials and thinned out by chutes. After

passing through the area covered by the in-line camera, the particles arrive at the ejection

nozzles, which selectively blow out the particles that are to be separated out into specific

bins for each type of non-ferrous materials. This process eliminates non-ferrous materials

from the waste stream and the sorting feature maximizes the prices that can be charged in

the scrap market for these materials.

Glass Sorting System This system operates in a similar way to the non-ferrous metal color sorting system except

that it works after the metals have been removed. All glass is sorted by color so they can be

more readily sold and at higher prices than mixed color glass residue. The remaining

material is flammable except for some non-flammable materials not automatically sorted.



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Manual Material Picking Process Automated systems are great and they catch most of the material that needs to be sorted

but they are not perfect. Thus, WPP uses a manual picking system to refine the sorting

process. The benefit of this part of the system is that very little additional sorting is required

but that which is done, makes the fuel stream for the pyrolysis process just that more

effective and allows it to produce pristine bio-fuel for use in the electricity generator internal

combustion engine drivers. This maximizes their efficiency and longevity.

Manual Material Picking Process

After all of the above separation and classification of non-flammable materials from the

waste stream, the remaining flammable materials are sent to the pyrolysis gasification

subsystem for the production of syn-gas.

Pyrolysis gasification Pyrolysis gasification is a transformation technology in which solid waste is changed in a

furnace-like device to high energy gas. The transformation of solid waste takes place in an

indirect heated vessel, which uses a proven super low nitrous oxide burner.



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There is little or no oxygen present in the system. The gasification process vaporizes the

waste and creates a high heat value syn-gas. The syn-gas is approximately 35% hydrogen

with smaller amounts of carbon monoxide, carbon dioxide, methane and various other

hydrocarbon gases. This syn-gas is then combusted in an internal combustion engine that

drives a generator to produce electricity.

These systems are much more efficient than traditional mass burn technology that uses

turbines in driving electricity generators. For example, a 200 metric ton per day mass burn

plant will usually generate up to 4.2 MW of electricity per hour (or up to 7.5 MW with a high

efficiency waste heat generation system) while a pyrolysis system with the same amount of

waste will generate up to 9.5 MW of electricity per hour (11.5 MW with a high efficiency

waste heat capture generation system).

HIGHEST EFFICENCY TECHNOLOGY With new high efficiency generators being developed in conjunction with WPP exclusive

sources, the electricity expected to be generated by the WPP plant will rises to as high as

12.7 MW. The production of potable water for both systems is the same but no Bio-Char is

available from the mass burn system. Instead that process produces bottom and fly ash

that may be sold but not at the same value as Bio-Char. Usually, ash has to be disposed in a

landfill.

Another advantage of the pyrolysis gasification system over a mass burn plant is that the

use of Syn-Gas makes the plant less vulnerable to variations in the input waste stream.

Other advantages are:



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less pollution – by using no oxygen, very few polluting flue gas emissions are

produced

modular plants – provide flexibility of operation and redundancy to maximize

operating time

lower cost – systems are easier to construct and can be manufactured in automated

plants

products - pyrolysis gasification plants produce more useful by-products

carbon credits - may be eligible for more carbon credits and other incentives

faster construction time - a pyrolysis gasification plant can be constructed in 12

months whereas a mass burn plant will take from 30 to 36 months

Below is a schematic for a pyrolysis gasification plant and a picture of the same plant with

components identified. Please note that the natural gas supply is only required for initial

start up. The diagram shows the use of gas turbines as driver for the electric generators but

most waste to energy plants use internal combustion engines because the size of these

waste to energy plant modules is too small for the efficient use of a gas turbine.

Below Pyrolysis Gasification Schematic

A Picture of a Standard Pyrolysis Gasification Unit



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Below is a picture of a Caterpillar gas generator set similar to the one normally used to date

in WPP Energy Corp.'s gasification plants. This generator set may soon be replaced with

new more efficient and less costly generator set developed with two partnership companies

and this will increase the electricity output to a much higher level.

Caterpillar Gas Generator

Waste heat recovery and secondary generation system



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The primary WTE plant converts forty percent of the heat produced by the pyrolysis

combustion of waste into electricity. This means that sixty percent of the heat is wasted.

WPP solves part of this problem by using a secondary heat recovery and conversion system

to raise the total generation efficiency of between fifty to sixty percent depending on the

generators used.

This system uses process that captures heat from several sources: 1) heat from the flue

stack; 2) heat from the gas engines’ radiators and 3) heat from the gas engines’ exhaust

gases. It then converts this heat into additional electricity using the system shown in the

schematic below. Under ideal conditions, this increases the electricity generated by 2.6 MW

from 7.9 MW to 10.5 MW.

Thus, in comparison with the best competing WTE process, the WPP Energy Corp. pyrolysis

gasification system is twenty seven percent more efficient than other pyrolysis gasification

systems and one hundred percent more efficient than traditional mass burn systems.

Below is the process used to obtain the additional 2.0 MW of electricity from the WPP

Energy Corp. pyrolysis gasification and waste heat capture system?

Thermodynamically, one of the most efficient ways to convert thermal energy (heat) to

mechanical energy is with an Organic Rankine Cycle (ORC). Steam Turbine plants are one of



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the most common and well-known ORC cycles, as shown in the CCLC Process Flow Diagram

shown above. In these cycles, the discharge from the expander (EXP 1) goes directly to the

condenser as shown by the small dotted arrow entering the condenser, rather than being

directed to the HX2 heat exchanger.

Cascading closed loop cycle (CCLC) power plant - ORC cycles are closed-loop cycles

involving five (5) major steps: a) fluid (water, propane, ammonia, Freon, etc.) is pumped

(P) to pressure; b) the pressurized fluid is vaporized in a heat exchanger (HK) using a heat

source; c) the pressurized vapor is expanded across the turbine (EXP) which is connected to

a compressor, generator or pump to produce useful work.; d) the vapor discharged from the

turbine is condensed back to a liquid using a cooling tower or fin-fan heat exchanger and

condenser; e) the condensed liquid is returned to a storage tank from which it is pumped

back to pressure to continuously repeat the cycle in a closed loop. The CCLC system is

simply a combined cycle turbo-expander system. The difference between a CCLC cycle and

a single turbo-expander cycle is that two expanders and two fluid streams are used in series

as shown in the rectangular dashed window of the CCLC Process Flow Diagram above. This

allows the thermal energy (heat) from the discharge of the first expander to be used to vaporize a second propane stream that is expanded in a second turbo-expander to increase

the efficiency as shown in the heat recovery.



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Efficiencies curve. The CCLC system is a unique arrangement of off-the-shelf components. The components

consist commercially available turbo-expanders, heat exchangers and a pump. These

components have millions of hours of reliable and nearly maintenance-free service. CCLC

systems can be used in applications from fractional HP to up to 50,000 HP. The CCLC works

well in a waste to energy plant because it provides efficient conversion of heat to

mechanical energy at temperatures normally found in a waste to energy plant.

Below is a CCLC Pressure – Enthalpy Curve that illustrates how the

system works.

Solid and gaseous pollution from the WPP WTE plant is virtually zero Based on the design of our pyrolysis gasification WTE system, significant pollution from flue

gases and non-flammable solid waste is not expected and, thus, no treatment is required.

This is because, most if not all, non-flammable materials are sorted out of the waste stream

before the waste is treated in the pyrolysis gasification process. The pyrolysis process itself

when used for gasification utilizes only low amounts of oxygen and this prevents the

creation of pollutants that often are found in the flue gas from mass burn plants.

In the unlikely case where pollutants become a problem our system uses a process in which

carbon dioxide, sulfur dioxide and nitrous oxide is combined with bio-char create sustainable

fertilizer composed of Ammonium Bicarbonate, Ammonium Sulfate and Ammonium Nitrate.



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Studies have shown this form of fertilizer creates outstanding plant growth while eliminating

polluting dioxides and oxides. The only other solid waste created by the pyrolysis

gasification process is vitrified slag that can be used in road construction and cement

products.

WTE plant floor space requirement The total floor space required for the WTE plants is 360 feet long by 106 feet wide for a

total of 38,160 square feet and is subdivided as follows:

Material handling & sorting = 220 X 106 feet = 23,320 square feet

Pyrolysis & plasma flue gas cleaning = 100 X 106 feet = 10,600 square feet

Electricity generation = 40 X 106 feet = 4,240 square feet

WTE plant outside space requirement

The total outside space required for the WTE plant is 7,640 square feet and is allocated as

follows:

Syn-fuel storage tanks = 32 X 40 feet = 1,280 square feet

WOW heat recovery system = 60 X 58 feet = 3,480 square feet

Substation = 60 X 48 feet = 2,880 square feet

Multiple plants or plant modules

If the amount of waste to be processed per day exceeds 200 metric tons, the size of the

plant will increase as a multiple of the sizes listed above except that the space required for

the substation, water production and bottling will not increase unless increased potable

water is required.

DESALINIZATION/PURIFICATION OF WATER Another potential source of revenue and profit from the waste to energy plant is the

production and sale of potable water. The following discussion of potable water production

and bottling is designed to show this.

WPP uses the latest reverse osmosis desalinization/purification technology to turn seawater,

surface water, brackish water, waste water and other polluted water into potable drinking

water. In a single step, the system filters, softens and disinfects these water resources to

produce water that meets WHO's regulations for drinking water. The system also clears

away naturally occurring organics and minerals, as well as contaminants from pollution,



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reduces salts, hardness, nitrates, pesticides, color, bacteria, viruses and disinfection

byproducts.

The proposed desalinization/purification plant provides 250,000 gallons (946,250 liters) of

potable water per day with a low energy consumption of 2.45 kWh per cubic meter of water.

The reason for this low consumption of electricity is an energy recovery system incorporated

into the plant. This volume of potable water can easily and at low cost be expanded through

the addition of other desalinization/purification plants. Below are schema and pictures of the

water desalinization/purification plant.

Desalinization/Purification Plant Flow Diagram



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Picture of a Desalinization/Purification Plant

Desalinization/Purification plant system processes Pretreatment - Pretreatment is typically required to insure a stable, long-term reverse

osmosis (“RO”) system performance and membrane life. In general, surface sea and waste-

waters require more pretreatment than well water supplies. Pretreatment may include

clarification, filtration, ultra-filtration, pH adjustment, removal of free chlorine, anti-scalent

addition and 5 micron auto-filter or cartridge filtration.

RO Process Design - Spiral-wound RO membrane elements are housed in cylindrical

pressure vessels, with as many as seven inter-connected elements per vessel. Vessels piped

in parallel constitute a single hydraulic stage, which typically yields 50% recovery of product

water based on the feed rate. The first-stage concentrate usually feeds one or more

downstream stages. Two-stage systems yield about 75% recovery; three-stage systems

yield about 85% recovery, depending on concentrate chemistry. Pressure vessels are staged

in tapered arrays to provide adequate feed/concentrate flow-rates and to maintain proper

differential operating pressures.

RO Membrane Elements - Membrane elements are based on superior membrane properties

(high rejection of TDS, silica and TOC and excellent chemical and biodegradation

resistance). The plant uses ninety-six (96) spiral-wound thin-film composite RO elements

manufactured by all of the industry's leaders.

The feed water must be free of Fe3 and bacterial contamination. The feed water piping must

be made of non-corrosive materials such as PVC or stainless steel 316.

This system is equipped with an integrated fresh water membrane flushing & cleaning

system. On shutdown the system will automatically flush the membranes with product

water. This same system in manual mode can be used with chemicals to clean or store the

RO membranes.



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Desalinization/Purification plant floor space required The total floor space required for the equipment to produce 250,000 gallons of potable

water per day is 2,088 square feet and is allocated as shown below:

Processing unit = 44 X 27 feet = 1,188 square feet

Storage tank = 30 X 30 feet = 900 square feet

BOTTLING PLANT The Kenya plant site may have at least one proposed bottling plant module. A module is

capable of bottling 250,000 gallons of water per day of varying sizes. The equipment

consists of two separate production lines. The supplier of the equipment is “A Packaging

Systems” located in LaPorte, Indiana, a major international provider of bottling equipment.

In the Kenya, bottled water is sold in the three sizes shown in the table below:

% of Market Bottle Size Bottles/Carton Price per Carton

70.00% 16.9 oz 24 $2.75

20.00% 1.5 Liter 12 $6.00

10.00% 1.0 Gallon 4 $2.80

The bottling plant production line consists of: bulk hopper/unscrambler; conveyor package;

rinse, filler, capper subsystem; intermittent table; labeler; shrink bottle packager, and

palletizer.

Bottling plant floor space requirement – 2 lines The floor space required for the 2-line bottling plant = 126 X 158 feet =39,816 square feet.

Please see the schematic for one of the bottling plant lines below.



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WPP COMPANY SUMMARY This document only touches on the capabilities of WPP Power, our associated companies and

our partners. We strive to look at all plant installations, field service projects, commissioning

projects, transmission and distribution as well as repairs from the owner and end user point

of view and we work in partnership with our client, the owner, operator, end user as a

integral part of their team. Unlike a lot of companies today, our priority goal is to provide

our services in such a manner that we become not only the successful contractor, but an

important integrated member of the team and the preferred supplier of future services as

well.

On all projects whether domestic or overseas in other countries, WPP strives to become a

welcome member of the society in which we have to work. To accomplish that, we hire

locally for as many workers as we can find and from labor positions to engineering.

We as a company only bring specific supervision to the site who’s often spend a lot of time

training local workers in work specific to the particular installation and usually from the

ranks of local construction employees, some are chosen to continue in operations following

start-up by the plant owners. Similarly we sub-contract works to local shops for things like

steel fabrication, concrete and other civil works, electrical installations, control

componentinstallations once again under direction of our supervision experts in their

particular field.

We at WPP look forward to assisting with your power plant projects, oilfield installations,

water and wastewater treatment needs and we also provide control, automation and

component maintenance services as well. For early stage proposals, we will also provide

conceptual studies, pre-design investigations and studies and more.

GREEN ENERGY CAPITAL FUNDING

If you are seeking energy financing as an individual, a company or a consortium, explain the need at

hand and allow WPP Energy Corp to enhance your financing needs for a complete turnkey power generation projects, financing of a minimum of $10m and over $1 Billion USD. We have access to

many capital funding sources, including venture capitalists, private investors, hedge funds, banks and financial institutions. Please submit the requested information on the form located in the section below so we can begin helping you get the financing that you need. For more information clikc here!

http://www.wppenergy.com/financing.htm





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WPP ENERGY CORP BRIEF CURRICULUM VITAE

SENIOR MANAGEMENT

Rafael Ben, President,

Chairmen of the board

Global head quarters divisions

President and chairmen in charge of WPP Energy Corp, heading a team leadership engineers

and experts in the waste to energy power generation with the latest modern technologies,

well recognized on a global scale, having an extensive technical and business experience

conducting business ventures over USA, Europe, Asia, Canada, Australia and other parts of

the world.

Rafael Ben holding patents and patens pending in the area of green and renewable energy

industries in mind of contributing to change the worlds habit using high rising oil prices, and

clean up the world from the gases and fumes that are our day to day concerns with a better

and greener methods of energy, such our latest modern waste to energy technologies.

In 1972 Rafael Ben became concerned about the energy and fuel futures of the U.S. and

began working on alternate fuels research. He was the first person to use alcohol blends

during this period and when he wrote "Methanol - A Clean Fuel for the 21st century”

In 1986 Rafael Ben work on various aspects of biomass and gasification at his own pace and

direction. In particular, he traveled to India for FAO in 1990 and evaluated conversion of

agricultural wastes to fuels and in 1992 he traveled to China for the Rockefeller Foundation

to evaluate two new gasifiers built there. In 1996 he travelled around the world, visiting

various gasification sites, gathering information for the book "Survey of Biomass

Gasification".

Rafael Ben has recently become the president of the Biomass Energy Foundation, a 501 (c)

3 organization dedicated to research, inventions and education in the field of biomass

energy. The foundation operates a small Press which keeps important books in this field

available.

J. Thomas Morrow,

Chairman, Vice President

J. Thomas Morrow, Chairman, Vise President & CEO: Education – B.S. Electrical Engineer,

B.S. General Science, MBA, PhD Business Administration; Registrations: Registered

Professional Engineer (California & Oregon), Registered Investment Advisor (SEC); Patents

and Patents Pending – Fillable and Non-invasive Hypodermic Injection Device, Solar Electric

Generation System (with Neil Ammentorp), Solar Electric Generation System (with Dennis

Roberts), Waste to Energy Electricity Generation Enhancement System (with Lennart



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Strand), Pyrolysis Gasification Waste to Energy Plant (with Dennis Roberts);

Work Experience:

Portland General Electric Company – Designed underground and above ground electric

power distribution systems including switching and circuit safety systems, General Electric

Company – Redesigned components and systems for nuclear reactor including fuel, Ford

Motor Company – Responsible for all in-house electrical engineering design work which

included all control and power systems and management of outside contractors, Beckman

Instruments Spinco Division:

Engineering Manager for a staff of forty in the design of medical laboratory equipment,

Bioject Medical Systems: Executive VP Engineering: Responsible for the design of the

Biojector needless hypodermic system, NAANOVO Energy USA, Inc.: Along with Lennart

Strand, responsible for the design of waste to energy plants and concentrated solar energy

plants, WPP Energy Corp: Along with Dennis Roberts responsible for the design of pyrolysis

gasification waste to energy plants and concentrated Photovoltaic solar energy systems for

electricity generation;

Other experience: Management Consulting and management for A.T. Kearney Co.,

Management Systems Associates and Case and Company, Management of the following

companies: Everybody's Record Company as co-founder and Chief Financial Officer, Morley

Capital Management as co-founder and Executive VP, Environmental Waste of America as

Treasurer and Chief Financial Officer, NAANOVO Energy USA, Inc. and WPP Energy Corp as

co-founder, chairman, President & CEO, Lanco Equipment Factors, Inc. as Chairman, CEO

and Chief Financial Officer, Pierce Pacific Manufacturing as Vice President of Sales &

Marketing.

Other activities and dates including employment prior to 2000.

Business Activities Last Ten Years

2000 – 2002 Professor of Business Administration. Marylhurst University, Lake Oswego,

Oregon. Taught undergraduate classes in business. 2003 – 2007 President, CEO, Director,

NAANOVO Energy, Inc., Calgary, Alberta, Canada; NAANOVO Energy USA, Inc., Lincoln City,

Oregon; NAANOVO International Free Zone NV, Aruba, Kingdom of the Netherlands;

NAANOVO International FZC, Fujairah, United Arab Emirates; CAANOVO Energy S.A.,

Guatemala City, Guatemala, NAANOVO Mexico S.A. De C.V..

These companies designed, developed and constructed waste to energy plants, solar energy

plants and flue gas cleaning systems. At the time I was hired, the companies had no money,

no operational technology and no customers. When I left, we had completed several waste

to energy and solar energy plants, had a sales backlog of approximately $18 billion. The

patents were in my name and not assigned to the company. My team of sales Agents had

developed $17.5 billion of the sales backlog. The backlog went away after I left.

2008 – 2010 Chairman, President, CEO and acting CFO. WPP Energy Corp, Newport,

Oregon. With others, developed new waste to energy and solar energy technologies.

NAANOVO's waste to energy plants were of a mass burn design with waste heat recovery

and their solar energy plants were concentrated solar plants that used steam and vapors to

drive generators.

WPP Energy Corp has pyrolysis gasification waste to energy plants and concentrated



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photovoltaic solar plants with wind and biomass pyrolysis gasification plants. Patents are

pending in my name. We have waste to energy plants in three countries and solar plants in

two countries. I cannot provide you with the countries involved due to customer

agreements.

I am listed in Who's Who in America, Who's Who in the World and Who's Who in Science

and Engineering. I was a registered Engineer in both California and Oregon until 2005 and a

Registered Investment Advisor with the U.S. Securities & Exchange Commission until 1997.

I have one patent issued for a Fillable and Non-invasive Medical Hypodermic Injection

Device plus four patents pending for waste to energy and solar energy plants.

Peter Ammentorp,

Secretary-Treasurer,

Director and Executive VP Sales & Marketing:

Education: B.S. Chemical Engineering, MBA; Work Experience: Monsanto – Chemical

Engineering and Chemistry, Quaker Oats – Senior Project Manager for major manufacturing

design and construction with over 100 contractors, Frito Lay Packaging Business Unit Leader

and oversaw a production staff of 130, VWR International – Senior Field Sales

Representative for major projects including laboratory and safety equipment contracts,

Fisher Scientific – Senior Field Account Manager for the sales of pharmaceutical, life science,

biomedical, chemical and other field of R & D.

Robert A. Geiss,

In House Legal Counsel

Director, Executive VP:

Education: B.A. Business, J.D.; Work Experience: Trial Lawyer Maryland and Florida; In

House Legal Counsel Tropical Healthcare, Key West Micro Cable, Viragen, Hubbard Geiss

Music, Inc. and WPP Energy Corp.; Business and Franchise Director – Seigel Medical Smart

Life Cookie Diet; Adjunct Professor – Barry University MBA Program and Board of Advisors.

Neil E. Ammentorp,

Senior Vice President

Chief Engineer:

Education: B.S. Engineering Technology – Dean's Award for Academic Excellence in

Engineering, Graduate with Honors from the Defense Language Institute, Supervisory

Training – Peter Kiewit Sons', Inc.; Registrations: Engineer in Training, ROC #237761 K-77,

ROC #237762 K-79, LEED AP (Leadership in Energy and Environmental Design

Certification); Patents: Patent Pending – Vane-less Turbine, Patent Pending – Solar Electric

Generation System (with J. Thomas Morrow);

Work Experience:

General Manager of Metropolitan Mechanical Contractors – Responsible for a large team of



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engineers and support staff who design major mechanical systems construction projects,

Harris Fire Protection, Climate Engineers, Inc., Balfour Beatty Construction, Peter Kiewit

Sons', Inc., Con Agra Flour Milling Company, The Wetz Company was responsible for

engineering, construction of major mechanical projects as project engineer, project

manager and Superintendent, Rockwell Collins, Rockwell International, Archer Daniels

Midland Corporation as a process control chemist.

John Commander,

Senior Vise President

Site Engineering:

Education: B.S. Civil Engineering – Distinguished Military Graduate, Flight training from

private pilot through air transport pilot, Type ratings in F-4C Phantom, T-37, T-38, C-7, C-

130, DC-9; Awards: two Distinguished Flying Cross Awards, 15 Air Medals and Presidential

Unit Citation; Registrations: Engineer in Training, Registered Land Surveyor; Work

Experience: Georgia FILS (Owner), Grenhorne & Mara, Inc.

Head of Surveying Survey Systems (Head of Department), Freeland-Clinkscales &

Associates, J.A. Evans Land Surveyors – Twenty years as a Land Surveyor, Airline Captain

with Eastern Airlines and Air Tran Airlines (Chief Pilot) – thirty years, Fighter and Transport

pilot USAF – Seven Years plus Eighteen year in reserves.

Loren Vernaza,

Senior VP Construction:

Education and Licenses: General Contractors License – Oregon; Licensed Oregon Realtor;

Journeyman Carpenter; Journeyman Drywall Framer and Finisher; Intermediate Plumber

and Electrician; Intermediate HVAC; Certified Installer – Parker Gas Lines; Mt. Hood

Community College – Business Classes. Work Experience: Mike Fox Homes – General

construction of houses; Sanders General Contractors General Construction of office and

manufacturing buildings; All Craft Construction – Owner and General Contractor of home

construction; major renovations of large scale residential and commercial projects.

Demolition of the I-90 Bridge in Seattle, Washington.

Words from the President

On behalf of our team we would like to thank you for taking the time to read about our

extensive wide information in regards to our knowledge and experience in renewable energy

using the latest modern technologies to save on petrolium spending, while at the same time

droping the global warming with the most advanced power generation technologies, and put

back the waste to nature.



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Our future modern structure of plasma gasification power plant!

Many Thanks WPP Team Experts Global Sales Division WPP Energy Corp [email protected] www.wppenergy.com 516 806 6056

mailto:[email protected]

http://www.wppenergy.com/