"Patience is a Super Power" - "The Money is in the waiting"
Showing posts with label Nuclear Fuel. Show all posts
Showing posts with label Nuclear Fuel. Show all posts

Friday, January 2, 2026

Modular Nuclear Power, why it matters and why now! A 10 minute brief!


Modular Nuclear Investments — 10-Minute Investor Brief

Strategic Context

Modular nuclear power — including Small Modular Reactors (SMRs), advanced modular reactors, and micro-reactors — is emerging as a long-cycle industrial investment theme at the intersection of:

  • grid reliability and baseload electrification,

  • AI datacenter power requirements,

  • industrial decarbonization & heat supply,

  • reshoring of strategic infrastructure and energy security.

Unlike prior nuclear development cycles, current interest is driven less by ideology and more by:

  • constrained power supply,

  • system-level reliability gaps,

  • the limits of intermittent generation in heavy industry,

  • sovereign desire for secure domestic energy.

However —

Modular nuclear is not yet a mass-deployment investment story.

The investable opportunity today is primarily in:

  1. fuel and fuel-services economics,

  2. standardized manufacturing and component supply, and

  3. engineering & deployment execution.

Pure-play SMR developers remain high-risk, binary-outcome ventures until first-of-a-kind (FOAK) reactors are financed, built, and proven repeatable.

Smart investors focus on execution signals, manufacturability, and capital discipline — not press releases or political enthusiasm.


What Modular Nuclear is Trying to Solve

Traditional gigawatt-scale reactors have historically faced:

  • bespoke engineering,

  • decade-long timelines,

  • cost overruns,

  • financing fragility.

Modular nuclear seeks to industrialize nuclear delivery by shifting value creation from field construction to factory manufacturing:

Traditional MegaprojectModular Nuclear Objective
One-off custom buildsRepeatable, standardized units
On-site fabricationFactory-built modules
Long unpredictable timelinesShorter & controlled schedules
Cost escalation riskCost reductions via replication

The investment thesis becomes viable only if:

  1. modules can be produced like industrial equipment, and

  2. developers can demonstrate FOAK delivery without destroying capital.

Until those conditions mature, investors should expect measured, not explosive adoption.


Investor Evaluation Framework

To separate credible progress from narrative momentum, use three discipline filters.


Filter 1 — Execution Over Storytelling

Promising signals include:

  • credible regulatory milestones,

  • funded FOAK projects,

  • sovereign, utility, or industrial customers,

  • EPC and supply-chain integration,

  • structured risk-sharing finance.

Weak signals include:

  • roadmaps without capital backing,

  • frequent timeline “resets,”

  • dependency on fuel chains that don’t yet exist,

  • value propositions that move faster than engineering reality.

Execution must be visible in:

  • contracts,

  • facilities,

  • construction milestones,

—not conference stages.


Filter 2 — Standardization & Manufacturability

The core question:

Will these reactors become products, or remain projects?

Investors should favor programs showing:

  • serial production intent,

  • module yard or fabrication capability,

  • standardized component qualification,

  • concrete plans for replication, not prototypes.

Economic returns improve only when:

unit #5 is cheaper than unit #1

Manufacturing learning curves — not technological novelty — drive scalability.


Filter 3 — Capital Discipline

Nuclear history is full of capital destroyed by premature scale-up.

Sustainable programs:

  • raise capital in stages,

  • match hiring and scope to milestones,

  • prioritize grants & strategic capital,

  • avoid speculative business pivots.

Red flags:

  • dilution cycles with weak execution,

  • rapid headcount expansion ahead of financing,

  • reliance on hype-driven narratives.

In modular nuclear:

The best companies move slow — on purpose.


Where Investors Are Most Likely to See Returns First

Returns are not evenly distributed across the value chain.

The most investable segments — today — are:

PrioritySegmentWhy It Matters
1Fuel cycle & uranium servicesRequired regardless of reactor design outcomes
2Manufacturing & large nuclear componentsBenefit from multiple programs in parallel
3Engineering / EPC deploymentPaid early in planning & site development
4SMR platform developersHigh-risk upside only after FOAK success

The ecosystem earns revenue before SMRs scale.

Developers earn revenue only if SMRs scale.


Representative Public Companies by Risk Tier

(Examples — not recommendations.)


Lower Technology & Execution Risk — Core Exposure

Cameco (CCJ / CCO)
Uranium supply, conversion, and fuel services. Revenue visibility is driven by long-term contracting cycles and enrichment margins — not SMR timing.

BWX Technologies (BWXT)



Manufactures nuclear components and systems used across defense, commercial nuclear, and emerging SMR programs. Benefits from hardware and manufacturing standardization, not reactor design risk.


Moderate Risk — Industrial SMR Upside

Rolls-Royce (RR. / RYCEY)
Government-aligned UK SMR initiative with defined program structure, while core aerospace & defense segments provide cash-flow ballast.

Fluor (FLR)
Engineering and EPC execution revenue tied to early-works, planning, and program delivery across nuclear and industrial infrastructure.


High Risk — Venture-Style Optionality

NuScale (SMR)
Pure-play SMR developer. Upside depends on:

  • FOAK financing,

  • EPC execution,

  • credible cost outcomes,

  • manufacturing repeatability.

This is speculative by nature and should remain a small satellite position until replication evidence emerges.


What the Deployment Timeline Realistically Looks Like

Near-Term (0–5 Years)

Revenue concentrated in:

  • fuel services,

  • manufacturing orders,

  • early EPC program work,

  • life-extension and refurbishment of existing reactors.

Mid-Term (5–10 Years)

First modular deployments likely to appear in:

  • remote / industrial power,

  • military and micro-grid environments,

  • early coal-replacement pilots,

  • selective export demonstration projects.

Deployment will be measured and risk-managed.

Long-Term (>10 Years)

Strategic optionality:

  • fleet replication,

  • process-heat and hydrogen integration,

  • large-scale baseload replacement,

  • possible AI-adjacent energy hubs.

Treat these as potential upside, not base-case assumptions.


Major Catalyst Themes (2026–2030)

Confidence in the sector improves when:

  • utilities sign long-term fuel contracts,

  • HALEU & enriched fuel supply chains mature,

  • standardized SMR regulatory pathways advance,

  • manufacturing or module yard capacity is built,

  • sovereign or export-financing frameworks materialize,

  • EPC programs shift toward multi-site contract structures.

The most meaningful catalysts are those that shift progress:

from paper → to capital → to hardware → to replication.

Announcements without capital or construction do not materially change risk.


Portfolio Construction Philosophy

A disciplined modular-nuclear allocation emphasizes:

  1. Fuel & manufacturing as the foundation

  2. EPC & industrial partners as deployment leverage

  3. Developers as controlled speculative exposure

Directional example mindsets:

Conservative approach

  • Overweight Cameco + BWXT

  • Moderate Rolls-Royce / Fluor

  • Small NuScale satellite position

Aggressive approach

  • Increase Rolls-Royce exposure

  • Retain core anchors

  • Allow slightly higher but still constrained developer allocation

In all cases:

SMR developers should not become core holdings until replication is visible.


Key Risks Investors Should Expect

This sector carries real structural risk, including:

  • FOAK cost inflation and schedule slippage,

  • financing delays & potential dilution,

  • regulatory iteration cycles,

  • supplier qualification risk,

  • customer withdrawal or scope revision.

The primary investor danger is capital being deployed:

  • too early,

  • too concentrated,

  • ahead of execution proof.

Patience, diversification across the ecosystem, and allocation discipline are essential.


Bottom-Line Investor Conclusions

Modular nuclear is:

  • an industrial manufacturing transformation story,

  • a long-cycle infrastructure buildout,

  • and a capital-discipline environment — not a speculative technology sprint.

The most credible investment strategy is:

Ecosystem first
Manufacturing & EPC second
Developers only as controlled optionality

Invest where:

  • cash flows already exist,

  • replication improves economics,

  • and execution progress can be independently verified.

Narratives will come and go.

Execution will determine who wins.

ED NOTE:

We own stock in Cameco

Monday, November 16, 2015

IBC Advanced Alloys Corp details

IBC Advanced Alloys Corp.IBC Advanced Alloys Corp.
TSX VENTURE : IB
OTCQX : IAALF


Description

IBC Advanced Alloys Corp. (IBC), formerly International Beryllium Corporation, is a Canada-based Company engaged in the development and manufacturing of advanced alloys, in particular beryllium alloys and specialty copper alloys. It also focuses on beryllium mineral exploration. IBC can be used in its pure form or combined with other metals to form unique alloys for essential applications for the nuclear, aerospace, medical, automotive, electronics and defence industries. It operates in three aspects: manufacturing, research and mineral exploration. It provides manufacturing and support services, including casting and master alloy products, cast and forged billet products, semi-continuous cast input billets and wrought products. It operates in copper alloys division and beryllium aluminium division. IBC owns a 100% interest in the Boomer mine located in the Lake George beryllium district. IBC US Holdings, Inc., Freedom Alloys, Inc., Nonferrous Products, Inc. are its subsidiaries.

Officers and directors

Contact Information


  • IBC Advanced Alloys Corp.
    Ian Tootill
    Director of Corporate Communications
    (604) 685-6263 ext. 110
    Email: itootill@ibcadvancedalloys.com
    Website: www.ibcadvancedalloys.com

    IBC Subsidiaries:

    Freedom Alloys, Inc.
    IBC Engineered Materials Corporation
    IBC Mineral Properties, Inc.
    IBC US Holdings, Inc.
    NF Industries, Inc.
    Nonferrous Products, Inc.
    Rare Earths Limited, LLC
    Specialloy Copper Alloys LLC

Tuesday, February 4, 2014

IBC Advanced Alloys Signs Memorandum of Understanding (MOU) with Nu-Cast

Today- Marketwire
IBC Advanced Alloys Corp. (TSX VENTURE: IB)(OTCQX: IAALF) ("IBC" or the "Company") has signed a non-binding memorandum of understanding ("MOU") with Nu-Cast, Inc. ("Nu-Cast"), based in Londonderry, NH, to collaborate with IBC on new beryllium-aluminum investment casting projects and opportunities, initially for the aerospace sector.

The MOU outlines a framework for increasing manufacturing capacity and improving production efficiencies of IBC's proprietary near-net-shape beryllium aluminum castings. The parties will also focus on joint business development initiatives aimed at increasing market share for IBC's castings which offer significant costs savings and improved delivery times compared to the existing production methods.
IBC's casting process has a long and successful history, with over 250,000 castings produced to date, and both companies have identified opportunities for significant growth in the aerospace and other markets. A proposed IBC-Nu-Cast initiative will combine the two companies' complementary skills to address this exciting opportunity and to drive both sector and application growth.

Founded in 1985, Nu-Cast is a recognized global leader of complex aluminum investment castings specializing in large lightweight structures for electronic, optical and aerospace projects. Nu-Cast has an established client base, which includes NASA agencies as well as top tier defense and military contractors including Lockheed-Martin, General Dynamics, Honeywell, Boeing, Northrop Grumman, Raytheon and many others. 

The two Companies have identified opportunities to improve manufacturing and marketing efficiencies for beryllium aluminum castings to support future growth. Nu-Cast has extensive experience with aluminum investment castings that will complement IBC's beryllium aluminum casting expertise. Pursuant to the MOU, the parties will initially evaluate and develop opportunities to expand IB-EMC's proprietary Beralcast(R) alloys for aerospace applications. 

"Nu-Cast has successfully served the aerospace sector for almost three decades and is an excellent complement to IBC's technology, team and corporate vision," said Don McKitterick, President of Nu-Cast. "Beryllium aluminum alloys have a long history of superior performance in aerospace sector," continued McKitterick, "By combining IBC's propriety and cost effective castings with Nu-Cast's manufacturing and marketing experience, we believe there is enormous potential for growth and we look forward to working with IBC on this opportunity." 

"There are many immediate synergies between IBC and Nu-Cast where we can share our respective know-how to better serve the aerospace industry," said Anthony Dutton, President of IBC. "We are delighted to work with Nu-Cast, who has a long and distinguished track record in the aerospace business, and to mutually increase opportunities for Beralcast(R) in the aerospace sector and other industries requiring high performance precision castings."

As recently disclosed, IB-EMC is in the final stages of an advanced qualification process with Lockheed-Martin's Electro-optical Targeting System (EOTS) team in Orlando, FL. IB-EMC is working with the EOTS engineering, design and quality teams to qualify the Company's Beralcast(R) alloys as effective alternatives to improve lead time and affordability of beryllium aluminum aerospace components. IB-EMC has completed several advanced prototype castings which are being used to evaluate Beralcast(R) alloys and castings for high performance optical aerospace components on Lockheed-Martin's F-35 Lightning II aircraft. 

Beralcast(R) alloys can be used in virtually any high performance application requiring complex, lightweight and high-stiffness parts and can be substituted for aluminum, magnesium, titanium, metal matrix composites as well as pure beryllium or powder metallurgy beryllium-aluminum. Beralcast's(R) principal alloys are more than three times stiffer than aluminum with 22% less weight and can be precision-cast for simple and complex three-dimensional stability. These high modulus alloys are ideal for high performance industrial and high tech components as well as for a wide range of aerospace applications. 

About IBC Advanced Alloys Corp.
IBC is an integrated manufacturer and distributor of rare metals (beryllium) based alloys and related products serving a variety of industries including nuclear energy, automotive, telecommunications and a range of industrial applications. IBC has 80 employees and is headquartered in Vancouver, Canada with production facilities in Indiana, Massachusetts, Pennsylvania and Missouri. IBC is creating a dynamic global beryllium and advanced alloys company. IBC's common shares are traded on the TSX Venture Exchange under the symbol "IB" and the OTCQX under the symbol " IAALF".

This news release was prepared by management of IBC, which takes full responsibility for its contents. The TSX Venture Exchange has not reviewed and does not accept responsibility for the adequacy of this news release. Neither TSX Venture Exchange nor its Regulation Services Provider (as that term is defined in the policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release.
This disclosure contains certain forward-looking statements that involve substantial known and unknown risks and uncertainties, certain of which are beyond the Company's control including: the impact of general economic conditions in the areas in which the Company operates, industry conditions, changes in laws and regulations including the adoption of new environmental laws and regulations and changes in how they are interpreted and enforced, increased competition, the lack of availability of qualified personnel or management, limited availability of raw materials, fluctuations in commodity prices, foreign exchange or interest rates, stock market volatility and obtaining required approvals of regulatory authorities. In addition there are risks and uncertainties associated with manufacturing activities therefore the Company's future results, performance or achievements could differ materially from those expressed in these forward-looking statements. All statements included in this press release that address activities, events or developments that the Company expects, believes or anticipates will or may occur in the future are forward-looking statements. These statements are based on assumptions made by the Company based on its experience, perception of historical trends, current conditions, expected future developments and other factors it believes are appropriate in the circumstances.
Contacts:
IBC Advanced Alloys Corp.
Ian Tootill
Director of Corporate Communications
(604) 685-6263 ext 110
itootill@ibcadvancedalloys.com
www.ibcadvancedalloys.com

The Howard Group Inc.
Dave Burwell
(403) 221-0915 or Toll Free: 1-888-221-0915
info@howardgroupinc.com


SOURCE: IBC Advanced Alloys Corp.

Previous:
 

Oct 31, 2013
IBC Advanced Alloys Signs MOU with Global Nuclear Fuels America and Ceramic Tubular Products to Advance Nuclear Fuel Initiatives. IBC Advanced Alloys Corp. TSX VENTURE : IB OTCQX : IAALF. October 31, 2013 09:30 ...
Jan 17, 2013
IBC Advanced Alloys Corp. (TSX VENTURE: IB)(OTCQX: IAALD) ("IBC" or the "Company") announces that its wholly owned subsidiary, IBC Engineered Materials Corp., a leading supplier of high performance aluminum ...
Nov 02, 2012
IBC is an integrated manufacturer and distributor of specialty alloys and related products serving a broad range of industries with production facilities in Indiana, Massachusetts, Pennsylvania and Missouri. The Company's ...
Jul 10, 2013
VANCOUVER, BC – July 9th, 2013 – IBC Advanced Alloys Corp. (TSX-V: IB; OTCQX: IAALF) (“IBC” or the “Company”) reports that the Massachusetts Institute of Technology (“MIT”) has completed its initial review and delivered ...

Thursday, October 31, 2013

IBC Advanced Alloys Signs MOU with Global Nuclear Fuels America and Ceramic Tubular Products to Advance Nuclear Fuel Initiatives

IBC Advanced Alloys Corp.IBC Advanced Alloys Corp.

TSX VENTURE : IB
OTCQX : IAALF




October 31, 2013 09:30 ET


IBC to explore opportunities with GNF-A and CTP to advance accident tolerant nuclear fuel technologies


VANCOUVER, BRITISH COLUMBIA--(Marketwired - Oct. 31, 2013) - IBC Advanced Alloys Corp. (TSX VENTURE:IB)(OTCQX:IAALF) ("IBC" or the "Company") is pleased to announce that it has signed a memorandum of understanding (the "MOU") with Global Nuclear Fuel - Americas, LLC ("GNF-A") and Ceramic Tubular Products, LLC ("CTP") to explore opportunities to collaborate on nuclear fuel research. The MOU was signed following meetings at the recent American Nuclear Society's annual Top Fuels conference where IBC presented recent R&D developments on its beryllium oxide ("BeO") nuclear fuel focused on developing a safer and more accident tolerant nuclear fuel.

Under the terms of the agreement, the parties will enter into discussions regarding a potential joint collaborative effort to develop and analyze the benefits of increased cooperation and interaction regarding the development and commercialization of the advanced beryllium oxide-silicon carbide ("BeO-SiC") fuel technology. The parties have also agreed to explore available opportunities for government or industry partner funding for accident tolerant fuel R&D initiatives.

Based in Wilmington, N.C., GNF-A is a joint venture of General Electric, Hitachi Ltd. and Toshiba Corporation and is a leading fabricator and supplier of Boiling Water Reactors ("BWR") fuel and services. GNF-A strives to continually advance fuel technologies to meet the demands of today's power reactors and to support a strong nuclear industry.

CTP, based in Rockville, MD is developing advanced silicon carbide nuclear fuel cladding which will improve both industry economics and safety. CTP has been awarded multiple grants, including one from the US Department of Energy, to further research, identify and evaluate complementary fuel forms, such as IBC's BeO enhanced fuel.

IBC recently reported that the Massachusetts Institute of Technology ("MIT") completed a fuel performance study supporting IBC's BeO nuclear fuel technology combined with CTP's silicon carbide cladding. The MIT report validates how IBC's BeO enhanced fuel and CTP's SiC cladding could reduce fuel operating temperatures and improve fuel operating characteristics leading to a safer and more accident tolerant fuel. The report, along with other recent findings from Texas A&M and Purdue Universities, was presented at the Top Fuels conference.

"We are very pleased to have signed this MOU with IBC and CTP which could have significant fuel cycle benefits for plant operators," said Chet Akiri, COO of GNF-A. "The potential benefits of the improved thermal conductivity fuel, combined with CTP's cladding technology, include lower fuel operating temperatures that deliver the same energy to the reactor system. GNF is committed," continued Akiri, "to pursuing new technologies that will improve fuel performance and result in important benefits for our utility customers."

Herb Feinroth, CEO of Ceramic Tubular Products, echoed Akiri's sentiments and said, "The tests of CTP's TRIPLEX Silicon Carbide cladding have already shown the potential for hundreds of times lower heat release and hydrogen release during severe accidents as compared to the current metal cladding now used in commercial reactors. The combination of CTP's cladding technology with IBC's enhanced BeO fuel," continued Feinroth, "could mark a significant step in the development of more accident tolerant nuclear fuels and we look forward to working with IBC and GNF to advance this important initiative."
As a result of recent nuclear industry events, industry officials and governments are supporting alternative advanced fuel designs including increased R&D initiatives for more accident tolerant fuels. Because of this increasing industry awareness the parties to the agreement look forward to entering into discussions with a number of potential nuclear industry partners to explore and discuss the next phase of R&D including irradiation requirements and testing of the fuel in test reactors.

About IBC Advanced Alloys Corp.
IBC is an integrated manufacturer and distributor of rare metals (beryllium) based alloys and related products serving a variety of sectors including aerospace, automotive, telecommunications and a range of industrial applications. IBC has 83 employees and production facilities in Indiana, Massachusetts, Pennsylvania and Missouri. IBC is creating a dynamic global advanced alloys company. IBC's common shares are traded on the TSX Venture Exchange under the symbol "IB" and the OTCQX under the symbol "IAALF".
This news release was prepared by management of IBC, which takes full responsibility for its contents. The TSX Venture Exchange has not reviewed and does not accept responsibility for the adequacy of this news release. Neither TSX Venture Exchange nor its Regulation Services Provider (as that term is defined in the policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release.
This disclosure contains certain forward-looking statements that involve substantial known and unknown risks and uncertainties, certain of which are beyond the Company's control including: the impact of general economic conditions in the areas in which the Company operates, industry conditions, changes in laws and regulations including the adoption of new environmental laws and regulations and changes in how they are interpreted and enforced, increased competition, the lack of availability of qualified personnel or management, limited availability of raw materials, fluctuations in commodity prices, foreign exchange or interest rates, stock market volatility and obtaining required approvals of regulatory authorities. In addition there are risks and uncertainties associated with manufacturing activities therefore the Company's future results, performance or achievements could differ materially from those expressed in these forward-looking statements. All statements included in this press release that address activities, events or developments that the Company expects, believes or anticipates will or may occur in the future are forward-looking statements. These statements are based on assumptions made by the Company based on its experience, perception of historical trends, current conditions, expected future developments and other factors it believes are appropriate in the circumstances.

Contact Information

Wednesday, July 10, 2013

MIT performance report supports Beryllium Nuclear Fuel and SiC fuel technology


Published Tuesday, July 9, 2013 6:05 am
VANCOUVER, BC – July 9th, 2013 – IBC Advanced Alloys Corp. (TSX-V: IB; OTCQX: IAALF) (“IBC” or the “Company”) reports that the Massachusetts Institute of Technology (“MIT”) has completed its initial review and delivered a fuel performance report validating the feasibility of IBC’s patented beryllium oxide (“BeO”) nuclear fuel technology combined with Ceramic Tubular Products, LLC (“CTP”) silicon carbide cladding. As reported in June 2012, IBC entered into a sponsored research agreement with MIT to analyze the performance of the BeO enhanced fuel and how it would perform with the addition of silicon carbide ("SiC) cladding.
IBC’s partnerships with CTP and MIT regarding a SiC based ceramic composite cladding complement IBC’s ongoing nuclear fuel R&D being conducted at Purdue and Texas A&M universities. The fuel performance report validates the characteristics of the fuel technology and further demonstrates how IBC’s BeO enhanced fuel, combined with CTP’s SiC cladding, could result in reduced fuel operating temperature and improve fuel operating characteristics leading to a safer and more accident tolerant fuel.
As a result of recent events in the nuclear industry, especially the well known issues at Fukushima in 2011, industry officials and governments are developing alternative strategies and increasingly reviewing the safety benefits of accident tolerant fuels. Because of this increasing industry awareness, the Company is in discussions with a number of potential nuclear industry partners, including Japanese fuel cycle suppliers, to explore and discuss the next phase of R&D including irradiation requirements and testing of the fuel in test reactors.
“We are very encouraged with the conclusions of the MIT fuel performance report about the beneficial characteristics and capability of the enhanced BeO fuel in combination with the SiC cladding technology”, said Jim Malone, IBC’s Vice President of Nuclear Fuel. “IBC is working diligently with Purdue, Texas A&M, CTP and and other industry participants to take the next step of a full irradiation trial in a test reactor to further understand and evaluate the advantages of BeO enhanced fuel as a next generation accident tolerant fuel.”
The IBC sponsored research at MIT is led by Dr. Mujid Kazimi, the MIT Tokyo Electric Power Company (“TEPCO”) Professor in Nuclear Engineering. Dr. Kazimi is also an MIT Professor of Mechanical Engineering and the Director of the Center for Advanced Nuclear Energy Systems (“CANES”). Dr. Kazimi is an expert on fuel performance, safety and power density with a substantial body of peer-reviewed publications as well as numerous academic awards and nuclear industry honors. In addition to his MIT responsibilities, Dr. Kazimi is also a member of the Nuclear Energy Advisory Committee at the US Department of Energy.
As previously reported, IBC has extended its research agreements with Purdue and Texas A&M, to advance its BeO nuclear fuels R&D until December 2013. IBC’s nuclear fuel program is focused on developing an accident tolerant high thermal conductivity BeO nuclear fuel for both current and future nuclear power reactors that is more efficient and safer than existing nuclear fuels. The project’s objective is to commercialize the intellectual property and to position IBC as an essential part of the nuclear industry’s supply chain.
About IBC Advanced Alloys Corp.
IBC is an integrated manufacturer and distributor of rare metals (beryllium) based alloys and related products serving a variety of sectors including aerospace, automotive, telecommunications and a range of industrial applications. IBC has 86 employees and production facilities in Indiana, Massachusetts, Pennsylvania and Missouri. IBC is creating a dynamic global advanced alloys company. IBC’s common shares are traded on the TSX Venture Exchange under the symbol “IB” and the OTCQX under the symbol “IAALF”.
IBC Advanced Alloys Corp.
Ian Tootill, Director of Corporate Communications
(604) 685-6263 ext 110
Email: itootill@ibcadvancedalloys.com