Neve Haim Program

Overarching goals

  • Ensuring a reliable and sustainable energy and water security for a new development area.
  • Blossoming desert areas and turning them into fertile land for agriculture and living.
  • Development of an innovative and thriving urban and rural settlement center.
  • Reduction of greenhouse gas emissions and reduction of dependence on fossil fuels.
  • Demonstration of advanced technological capabilities and their integration into a synergistic system.
  • Job creation and the promotion of regional economic growth.

The components of the facility and the synergy between them

The facility will include the following components, operating in synergy:

  • Nuclear reactor (preferably an SMR – Small Modular Reactor)

    It will provide reliable and clean baseload energy for desalination, the power grid, and pumping systems.

  • seawater desalination plant

    Produces fresh water for agriculture, drinking, and industry, powered by energy from the reactor and/or solar power.

  • hydroelectric dam and water reservoir

    • It will serve as a pumped storage facility: excess solar energy will be used to pump water to the upper reservoir; during peak demand hours or when there is no sun, the water will be released to generate electricity.
    • It may also generate hydroelectric energy from the flow of treated wastewater or desalination excess, if relevant to the design.
  • Floating solar panels (Floatovoltaics)

    They will be installed on the water reservoir, generate clean electricity, reduce evaporation, and utilize space efficiently.

The central synergy: The reactor provides a constant base load of energy, the solar array provides energy during daytime hours (including for charging the pumped storage), and the pumped storage provides flexibility and backup to the grid. The desalinated water enables agriculture and settlement, which benefit from clean and reliable energy supplied continuously.

integration into the geographical fabric

The vision for smart, stable, and ecological settlement in a desert space is being realized through a multi-layered model based on a functional and tiered settlement hierarchy, drawing inspiration from nature – from the stream to the capital city.

  • Fundamentally, the space is defined by natural values and ecological corridors, which serve as a fundamental environmental asset – undisturbed nature reserves that maintain ecological balance.
  • Above them, the second layer is based on ecological development points: "isolated farms" that utilize existing infrastructure (water, electricity, roads) with minimal disruption. These also serve as experiential attraction points based on environmental security.
  • The third layer is rural agricultural settlement – moshavim and kibbutzim equipped with basic infrastructure, combining residence with advanced agricultural cultivation while preserving ecological boundaries.
  • At the peak of the system stands urban settlement – a capital city or a metropolitan city, dense and technologically advanced, which provides community services, education, culture, and employment, and serves as a regional innovation center.

This combination gains additional depth when planning the location of 'Neve Haim', adapting to the local resources:

  • The construction of the innovative energy facility will be based on an optimal location in an arid desert, with access to the coastline for the establishment of a desalination plant and controlled brine discharge into the sea. Suitable topography will enable the construction of a dam and a head reservoir for pumped storage, while efficiently utilizing the terrain conditions.
  • Comprehensive spatial planning will include the definition of land uses, safety separation around sensitive components (such as reactors), and the integration of water and electricity transmission infrastructure. Around the facility, modern agricultural areas and planned residential and employment zones will be developed as a smart and green city/village, incorporating advanced urban solutions in the fields of water and energy.
  • Rigorous environmental considerations will form a cornerstone of all project phases, ranging from brine management to addressing the ecological impacts of the water reservoir and dam. A comprehensive environmental impact assessment will ensure that the facility operates with a sustainable approach and integrates harmoniously with the environment.

Key stakeholders

  • Government of Israel: Ministries of Energy, Environmental Protection, Agriculture, Interior, Finance, Construction and Housing, Negev and Galilee.
  • Regulatory bodies: Electricity Authority, Water Authority, Atomic Energy Commission, planning and building committees.
  • Funding bodies: banks, institutional investors, private equity funds, international development banks.
  • Technology companies: nuclear reactor suppliers, desalination technologies, solar panels, hydroelectric turbines.
  • The public: future residents of the area, environmental and social organizations, the scientific community.
  • Agricultural and industrial sector: The future water and energy consumers.

Work plan stages

Phase A: Initiation, feasibility studies, and conceptual design (2-4 years)

  • Preliminary research and development (R&D) to examine optimal technologies and their integration.
  • Location and analysis of potential sites: geological, environmental, and security surveys, as well as proximity to the sea and the electrical grid.
  • Comprehensive feasibility studies: engineering, economic (CAPEX, OPEX), environmental (preliminary ESIA), social, and regulatory.
  • Formulation of an integrative planning concept, including preliminary water and energy yield models.
  • Defining a regulatory framework and obtaining in-principle approvals.
  • Identification of strategic partners and formulation of an initial financing framework.

Phase 2: Detailed planning, permitting, and financial close (3-6 years)

  • Detailed engineering design (FEED – Front-End Engineering Design) for all facility components and their integration.
  • Preparation of detailed Environmental and Social Impact Assessments (ESIA) and submitting them for approval.
  • Obtaining all required permits and licenses (construction, operation, brine discharge, etc.).
  • Financial closing: Securing all sources of financing for the project.
  • Preparation of tenders and selection of main contractors and suppliers.

Phase 3: Construction, Assembly, and Testing (7-15 years)

  • Infrastructure work and site preparation.
  • Staged deployment of the components: dam and reservoir, nuclear power plant, desalination plant, floating solar array, water and electricity grid connections.
  • Integration and acceptance testing (Commissioning) of each system separately and of the integrated facility.
  • Training of operation and maintenance teams.

Energy supply for the construction phase

  • Initial connection to the national grid: Where possible and economically viable, initial transmission infrastructure will be laid from the national grid to the site.
  • Early deployment of a dedicated solar facility + storage for the construction phase: The first sub-project will be the establishment of a medium-scale solar farm with storage facilities (batteries) that will supply part of the energy required for the construction site in a clean and stable manner.
  • Generators (diesel/gas): Will be used for backup, special work requiring mobility, and in very early stages before the operation of other sources. An effort will be made to minimize their use.

Main sub-projects in the implementation phase

  • Access and logistics infrastructure: paving main and internal access roads, establishing worker camps, temporary water and sewage infrastructure, airstrips (for heavy/sensitive equipment), and logistical storage areas.
  • Seawater conveyance system and reservoir preparation: construction of a seawater conveyance canal for the desalination plant and the lower pumped storage reservoir; construction of the dam and the upper pumped storage reservoir.
  • Construction of the nuclear power plant (SMRs): construction of the reactor complex, installation of core systems, cooling, control, and safety.
  • Establishment of the desalination facility: construction of the buildings, installation of the filtration systems, pumps, and pre-treatment and post-treatment systems.
  • Deployment of the floating solar panels and installation of the mooring and electrical connection systems.
  • Installation of pumped storage systems: pump-turbines, penstocks.
  • Establishment of substations and main high-voltage power transmission lines to connect the compound to the national grid.
  • Laying main pipelines for conveying desalinated water to planned consumption areas.
  • Construction of management, control, maintenance, and laboratory buildings.

Integration, acceptance testing and phased rollout

Rigorous testing of each component individually, followed by integration testing of the combined systems, until reaching full and stable output. Training of operations teams.

Phase 4: Ongoing Operations, Maintenance, and Optimization (40-60+ years)

  • Commercial operation of the facility and production of water and energy.
  • Development of the agricultural areas and populated regions dependent on the facility.
  • Routine, preventive, and predictive maintenance of all systems.
  • Continuous environmental monitoring and compliance with license conditions.
  • Optimization of the synergistic operation between the components.
  • Long-term planning for future decommissioning (especially for the nuclear reactor) and site remediation.

Financing and cash flow

Initial capital expenditure estimation

Establishing a complex of such a scale, including a nuclear reactor, a massive desalination facility, a dam and pumped storage, large solar farms, and associated infrastructure, is a mega-project with unprecedented costs on an Israeli scale. A very rough estimate, which depends on final specifications, the number of reactor units, the scope of desalination, topographical complexity, and construction methods, could range in the tens of billions of dollars (for example, $50-100 billion or even more).

Blended Finance model

  • Direct public investment/state guarantees: For strategic components (nuclear reactor, dam and reservoir infrastructure).
  • Private financing (equity and loans): For technology companies and entrepreneurs (solar farm, desalination parts).
  • Public-Private Partnership (PPP): For large sections of the project.
  • Dedicated investment funds for infrastructure and green energy: local and international.
  • Green Bonds and/or project bonds.
  • Research and Development (R&D) grants.

Pricing of facility outputs

It shall be determined in a manner that ensures a reasonable return on investment while maintaining affordable prices for consumers, possibly through cross-subsidization or government support during initial periods.

Logistical and operational aspects during the setup phase

Professional manpower required

  • Management and Engineering: Project managers, civil, mechanical, electrical, nuclear, chemical, environmental, and safety engineers, logisticians, surveyors.
  • Professional workers: welders, pipefitters, electricians, heavy equipment operators, concrete workers, ironworkers, instrumentation and control technicians, divers.
  • Support teams: administration, human resources, security, occupational health.

Main raw materials

  • Concrete: millions of tons of cement, sand, gravel, and water.
  • Steel: Hundreds of thousands to millions of tons of reinforcing, structural, and special alloy steel.
  • Excavation and fill materials: millions of cubic meters of earth and rock.
  • Piping: Many kilometers of piping in various diameters, made of diverse materials.
  • Cables: thousands of kilometers of power and communication cables.
  • Complex components: turbines, generators, pumps, transformers, desalination membranes, solar panels, nuclear core components.
  • Chemicals: for construction processes, water treatment, and more.

Central Mechanical and Engineering Equipment

  • Earthmoving equipment: excavators, bulldozers, graders, heavy dump trucks, loaders.
  • Cranes: tower cranes, mobile cranes with a very high lifting capacity.
  • Stationary and mobile concrete mixers, concrete pumps.
  • Drilling and blasting equipment (conventional).
  • Pipe-laying equipment and heavy mechanical assemblies.
  • Vessels and marine equipment (for the installation of marine intake/discharge facilities).
  • Special transport equipment for large and heavy components.

Project management

  • National project manager (or dedicated body): A statutory body to be established and entrusted with leading the project, coordination, supervision, and control.
  • Operating company (SPV – Special Purpose Vehicle): A dedicated company may be established for construction, operation, and maintenance.
  • Steering committees and professional working teams.
  • Transparency and public reporting.
  • Proactive risk management.
  • A strict and independent regulatory oversight array.

Moshe Cohen

Party Treasurer. Strategic Business Development and Finance Manager, MBA graduate, with over a decade of management experience leading growth, partnerships, and expansion into new markets across various business sectors.

Matan Aaron Libent

Secretary-General of the party. 31 years old. Investor in the American capital market. Managed digital and social networks for research institutes and served as a member of the academic staff at Reichman University.

Erez Bar-Ziv, Attorney

Lawyer and high-tech professional, recipient of the IDF Chief of Staff's citation. Jewish and Zionist at heart, a friend, and a pursuer of justice.
Leading root treatment in the legal system: Transferring it to a justice orientation, legal responsibility for errant judges, punishment for lying in court, and abolition of the High Court of Justice.
My platform includes solutions for vulnerable populations and seniors, education in Jewish and democratic state values, elimination of our enemies, and a free economy without barriers.

Sigal Gutsman

Educator, director of a non-profit organization for the population with special needs. Social and political activist for single parents, with an emphasis on single mothers, cost of living, parents of children with special needs, and individuals with mental health challenges.

Ms. Inbal Maar

Educator and social entrepreneur, host of a podcast for business promotion, youth parenting coach and couples counselor, founder of the R.H.L. association for the elderly.

Rabbi Ben Zion Gaglola

Board member.
Manager of Beit Chabad in the German Colony in Haifa.

Baniyah Har Shemesh

Board member, political scientist. 30 years old, served in the Golani Brigade and grew up on a solitary farm in the Negev. Represented farmers in the Association for Individual Settlement (non-profit) and leads the Neighborhood Committees Division in the Exiting to Freedom organization (non-profit).