NASDAQ: LWLG

Our customers and prospective
customers include semiconductor foundries, silicon photonics device designers, optical module manufacturers, and system integrators serving
artificial intelligence (“AI”), cloud computing, data center, and telecommunications markets. We pursue customer adoption
through a structured commercialization process designed to support evaluation, integration, qualification, and production readiness within
established semiconductor manufacturing ecosystems.

As of January 2026, multiple
customer programs are progressing through defined development stages under our commercialization framework. The timing and scale of potential
production revenue depend on customer product qualification and adoption cycles, technical validation, manufacturing readiness, end-market
demand, and broader industry conditions.

Our Electro-Optic Polymer Technology

Our technology platform
is based on the design, synthesis, and integration of proprietary electro-optic polymer materials engineered to exhibit strong electro-optic
(“EO”) activity, optical transparency in relevant wavelength bands, and compatibility with semiconductor fabrication processes.

Electro-optic polymers utilize
engineered chromophore molecules embedded within a polymer matrix. When an electric field is applied, the optical properties of the material
change in a manner that can be used to modulate light propagating through a waveguide structure. The strength of this electro-optic response,
combined with the material’s processability, is central to device performance and manufacturability.

Our Perkinamine® materials
are designed to:

• Support
high-speed optical modulation suitable for advanced data rate standards,

• Enable
high-bandwidth performance through strong electro-optic coefficients,

• Operate
at relatively low drive voltages,

• Be
deposited and patterned using processes compatible with semiconductor manufacturing environments,

• Maintain
stability under operational and environmental stress conditions required by customer applications.

Because electro-optic polymers
can be applied directly within waveguide structures, they may allow modulator architectures with shorter interaction lengths compared
to certain alternative material systems. Shorter interaction lengths can contribute to more compact device geometries and increased integration
density within photonic integrated circuits.

The compatibility of our
materials with complementary metal oxide semiconductor (“CMOS”) fabrication processes, including back-end-of-line integration
flows, is designed to facilitate incorporation into silicon photonics platforms using established foundry infrastructure rather than
requiring dedicated fabrication facilities.

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We continue to invest in
material optimization, including improvements in electro-optic efficiency, thermal stability, wavelengths expansion, environmental robustness,
and process integration parameters. Material formulation, device architecture, and integration techniques are developed in parallel to
support customer-specific performance and reliability requirements.

Commercial deployment of
devices incorporating our materials depends on successful integration within customer and foundry process flows, achievement of reliability
standards, and attainment of yield and cost targets.

Unless the context otherwise
requires, all references to the “Company,” “we,” “our” or “us” and other similar terms
means Lightwave Logic, Inc. Also, this Form 10-K Annual Report may include the names of various government agencies and the trade names
of other companies. Unless specifically stated otherwise, the use or display by us of such other parties’ names and trade names
in this report is not intended to and does not imply a relationship with, or endorsement or sponsorship of us by, any of these other
parties.

Business Model - Material + IP Licensing

Our business model is centered
on the commercialization of proprietary electro-optic polymer materials and related intellectual property through material supply and
licensing arrangements.

We do not currently intend
to manufacture finished optical transceivers, discrete photonic devices, or complete optical modules. Our strategy is to enable customers
to incorporate our materials into their own device platforms and manufacturing ecosystems, leveraging established semiconductor foundry
infrastructure.

Our revenue model may include
one or more of the following components:

Material Sales

We supply EO polymer materials
to customers for evaluation, prototyping, and potential commercial production. Material sales may occur during development phases as
well as during volume manufacturing, subject to customer qualification and demand.

If customer programs transition
to commercial production incorporating our materials, material revenue would be expected to scale with device volumes.

Intellectual Property
Licensing

We may enter into licensing
agreements covering aspects of our polymer compositions, device designs, integration processes, and related intellectual property. Licensing
arrangements may include: upfront license fees, development or milestone-based payments, and field-of-use or application-specific licenses.

The structure and economics
of such agreements vary depending on customer requirements and the scope of intellectual property granted.

Royalty or Production-Based
Fees

In certain arrangements,
we may receive royalties or other production-based payments tied to the manufacture or sale of devices incorporating our materials or
licensed technology. The structure, rate, and duration of such payments depend on negotiated terms and customer product lifecycles.

There can be no assurance
that any given customer program will result in royalty-bearing production.

Revenue Timing Considerations

Customer engagements typically
progress through multi-stage development cycles. During early stages, revenue may consist primarily of material sales, non-recurring
engineering (“NRE”) fees, prototype-related activities, or development support.

Based on the current status
of customer programs, we anticipate that revenues, if any, recognized during 2026 would primarily relate to material supply, NRE arrangements,
or prototype and development activities. We do not currently expect significant revenue from volume commercial production of customer
products until 2027 at the earliest. The timing and magnitude of any production-related revenue depend on successful product qualification,
yield validation, customer adoption decisions, end-market demand, and broader industry conditions.

There can be no assurance
that development-stage programs will transition to volume production, that anticipated timelines will be achieved, or that commercial
revenues will occur as expected.

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Strategic Flexibility

While our current strategy
is focused on materials supply and intellectual property licensing, we may evaluate selective opportunities to participate more directly
in device-level development in limited circumstances. Such participation, if pursued, would likely be application-specific and would
depend on market conditions, partnership opportunities, capital requirements, and strategic considerations.

We have not committed to
entering device manufacturing as a core component of our business model, and any such activity would be evaluated in the context of our
overall capital allocation priorities and commercialization strategy.

Operating Leverage

Our model is designed to
leverage existing semiconductor fabrication infrastructure rather than require capital-intensive wafer fabrication facilities. By integrating
into established foundry process flows, we seek to enable scalable production through customer and foundry manufacturing capacity.

If customer programs advance
to high-volume production, incremental material demand and royalty streams may provide operating leverage due to the intellectual property-driven
nature of our model. However, realization of such leverage depends on successful qualification, customer adoption, competitive dynamics,
and end-market demand.

Commercialization Process (Design Win Cycle)

We pursue customer adoption
through a structured, multi-stage engagement framework that we refer to as our Design Win Cycle. This process is designed to guide customer
programs from initial technology evaluation through potential production ramp within established semiconductor manufacturing ecosystems.

While program timelines vary
based on customer requirements, foundry schedules, application complexity, and market conditions, the Design Win Cycle typically spans
approximately 18 to 24 months.

Progression between stages
depends on the achievement of defined technical and commercial milestones. Advancement to later stages does not assure commercial production.

Stage 1 – Technology
Selection

(Typically 3–6 Months)

During the Technology Selection
stage, customers evaluate the suitability of our electro-optic polymer materials for their intended applications.

Activities may include:

• Demonstration
of modulator performance characteristics,

• Assessment
of material reliability and environmental stability, or

• Comparative
evaluation against alternative technologies, including performance, power consumption, footprint,
and cost considerations.

This stage is focused on
determining whether our materials are appropriate for incorporation into the customer’s development roadmap.

Revenue during this stage,
if any, may consist of material samples, evaluation kits, or limited technical support.

Stage 2 – Product
Design

(Typically 3–6 Months)

If a customer elects to proceed,
engagement advances to Product Design. During this stage, we support integration of our materials into the customer’s device architecture
and semiconductor foundry process flow.

Activities may include:

• Provision
of process design kit (“PDK”) elements,

• Support
for modulator design and simulation activities,

• Coordination
with semiconductor foundries to enable material integration, or

• Participation
in product reliability planning and test definition.

Progression from Stage 2
to Stage 3 typically requires successful completion of prototype design objectives and confirmation that fabrication resources are available.
In certain cases, advancement may be gated by the availability of, and access to, a customer’s preferred semiconductor foundry,
including allocation of wafer runs, process integration readiness, and foundry scheduling considerations.

Revenue during this stage
may include material sales or non-recurring engineering (“NRE”) fees associated with development activities.

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Stage 3 – Prototype
to Final Product

(Typically 12–18
Months)

In this stage, customers
fabricate and refine prototype devices incorporating our materials.

Activities may include:

• Support
for product design iterations (alpha, beta, and final versions),

• Participation
in end-user qualification activities, including performance and reliability validation,

• Process
refinement efforts intended to improve manufacturing yield and cost metrics.

As of January 2026, three
customer programs were engaged in this stage, with one customer requiring customization of our material platform to meet their specific
application needs. Approximately fifteen additional customer engagements were in Stages 1 and 2.

Revenue during Stage 3, if
any, may consist of material supply, NRE arrangements, or development-related activities. Entry into this stage does not guarantee transition
to commercial production.

Stage 4 – Production
Ramp to High Volume

If technical qualification,
yield targets, and cost alignment objectives are achieved, programs may advance to production ramp.

Activities during this phase
may include:

• Ongoing
support for process control and yield improvement,

• Participation
in cost reduction and manufacturing efficiency initiatives,

• Support
for design of product variants, or

• Preparation
for next-generation product platforms.

Commercial production typically
requires achievement of customer-defined qualification milestones, acceptable manufacturing yields, cost targets, and confirmed end-market
demand.

Based on the current status
of customer programs, we anticipate that revenues, if any, recognized during 2026 would primarily relate to material supply, NRE arrangements,
or prototype and development activities. We do not currently expect significant revenue from high-volume commercial production of customer
products until 2027 at the earliest.

There can be no assurance
that programs currently in development will successfully transition to commercial production, that foundry capacity will be available
as anticipated, or that projected timelines will be achieved.

Market Opportunity (AI Networking, Hyperscale
Data Centers and Telecommunications)

AI Networking and Hyperscale
Data Centers

The rapid expansion of artificial
intelligence (“AI”), machine learning workloads, and cloud computing applications is driving structural changes in data center
architecture and networking design. AI training and inference systems require increasingly higher bandwidth, lower latency, and improved
energy efficiency across dense computing environments. As AI clusters scale, networking performance has become a critical factor influencing
system throughput, power consumption, and total cost of ownership.

Industry analysts project
continued growth in the optical interconnect market serving hyperscale data centers. According to LightCounting and other industry research
sources, the total addressable market (“TAM”) for optical transceivers supporting AI networking, data center, and related
applications could reach approximately $24 billion annually by 2028, driven by transitions to 800G, 1.6T, and higher-speed architectures.

Within this broader market,
the serviceable addressable market (“SAM”) for high-speed optical modulators represents a subset of overall optical engine
and transceiver content. Based on internal company estimates informed by LightCounting research, we believe the SAM associated with high-speed
modulators used in advanced data center interconnects could range from approximately $1 billion to $2.5 billion annually by 2028, depending
on architecture mix, lane speeds, and adoption rates.

These estimates are based
on published industry data and internal modeling assumptions. Actual market size, growth rates, and our potential participation in these
markets depend on technology adoption, competitive dynamics, customer qualification cycles, and broader industry conditions.

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Scale-Up, Scale-Out
and Scale-Across Architectures

AI networking expansion occurs
across three primary dimensions:

Scale-Up (Within the Rack)

Scale-up refers to high-bandwidth
connectivity among processors, accelerators, and memory within a single server or rack. These connections require short-reach, ultra-high-speed
interconnects operating within strict power and thermal envelopes.

In scale-up environments,
electrical interconnect limitations are increasingly addressed through optical solutions. Modulators capable of high bandwidth, low drive
voltage, and compact footprints may enable greater port density and reduced power consumption within rack-level architectures.

Scale-Out (Across Racks
Within a Data Center)

Scale-out refers to connectivity
between racks within a hyperscale data center. These links require higher aggregate bandwidth and reliable performance over longer distances
relative to intra-rack connections.

As AI clusters expand, the
number of deployed optical transceivers and modulator lanes increases significantly. Technologies that support higher per-lane data rates
while managing power consumption and integration complexity are central to enabling scalable cluster growth.

Scale-Across (Between
Data Centers)

Scale-across connectivity
supports communication between geographically distributed data centers. These links typically rely on coherent optical systems and must
support high aggregate throughput across longer distances.

Electro-optic polymer-based
modulators may be relevant across all three scaling dimensions, subject to application-specific performance requirements and qualification
standards.

Optical Transceivers
and Co-Packaged Optics Architectures

Most data center optical
interconnects today are implemented using pluggable optical transceivers. In this architecture, optical modules are inserted into network
switches or servers through standardized electrical interfaces. The optical engine, including modulators, lasers, drivers, and receivers,
is contained within a discrete pluggable module.

Pluggable transceivers offer
flexibility and interoperability. However, as data rates increase, electrical trace lengths between the switch silicon and the pluggable
module can introduce signal integrity challenges, increased power consumption, and thermal constraints.

Co-packaged optics (“CPO”)
represents an alternative architectural approach in which optical engines are integrated more closely with switching silicon within the
same package or substrate. By reducing electrical trace lengths, CPO architectures seek to improve signal integrity and power efficiency
at higher data rates.

Both pluggable transceiver
and CPO architectures rely on high-performance optical modulators as core functional components. Our electro-optic polymer materials
are designed to support high-speed, high-bandwidth modulation with compact device geometries and CMOS-compatible integration, characteristics
that may be relevant to both architectures, subject to customer qualification and system-level requirements.

The pace and extent of adoption
of CPO relative to pluggable architectures remain dependent on ecosystem coordination, packaging technology readiness, cost considerations,
and deployment strategies.

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Transceiver Data Rates
and Per-Lane Bandwidth

Optical transceiver performance
is typically described using aggregate data rate designations, such as 400G, 800G, or 1.6T. These figures represent the total data throughput
of the module. In practice, transceivers achieve these aggregate speeds by combining multiple parallel optical lanes, each operating
at a defined per-lane data rate.

For example, a 1.6 terabit
(“1.6T”) optical transceiver may be implemented using eight optical lanes operating at 200 gigabits per second (“200G”)
per lane. Increasing per-lane bandwidth reduces the need to proportionally increase lane count, which can otherwise add complexity, footprint,
power consumption, and packaging challenges.

Higher per-lane data rates
require modulators capable of operating at increased bandwidth while maintaining signal integrity and acceptable power consumption. Our
electro-optic polymer materials are designed to support high-speed, high-bandwidth optical modulation, which may be relevant as customers
transition to higher per-lane data rates in next-generation transceiver and co-packaged optical architectures, subject to qualification
and system-level integration requirements.

Telecommunications
and Coherent Optical Systems

In addition to hyperscale
AI data centers, optical modulators are used in coherent dense wavelength division multiplexing (“DWDM”) systems for long-haul,
metro, and access networks. LightCounting has estimated that the market for coherent optical transceivers represents several billion
dollars annually, including an estimated approximately $7 billion TAM for coherent DWDM applications referenced in our investor materials.

Electro-optic polymer materials
may be applicable in certain coherent optical architectures, subject to performance validation and qualification requirements.

Emerging and Specialty
Applications

Beyond data center and telecommunications
markets, electro-optic materials may have potential applications in additional photonic domains, including quantum technologies, sensing,
defense systems, and space communications. Published industry research has projected long-term growth in certain quantum computing, quantum
communications, and quantum sensing markets, although adoption timelines and commercial maturity remain uncertain.

While our current commercialization
efforts are primarily concentrated on AI-driven data center and telecommunications applications, we are also evaluating opportunities
to participate selectively in emerging vertical markets. For example, we have publicly announced collaborative activities related to
quantum photonic applications, including recent engagement with QPICs. These efforts are intended to explore the applicability of our
materials in specialized photonic platforms and to position the Company for potential participation in evolving quantum ecosystems.

We expect that any participation
in emerging or specialty applications would develop gradually and remain subject to technical validation, partnership development, capital
allocation priorities, and overall strategic considerations.

Manufacturing
and Foundry Integration Strategy

Our commercialization approach
is designed to leverage established semiconductor fabrication infrastructure rather than require construction of proprietary wafer fabrication
facilities. We do not operate semiconductor wafer fabrication plants. Instead, our electro-optic polymer materials are intended to be
integrated into silicon photonics (“SiPh”) and related photonic integrated circuit (“PIC”) platforms at third-party
semiconductor foundries.

This fabless materials model
allows us to focus on material innovation, integration support, and intellectual property development while utilizing the manufacturing
scale, process controls, and capacity of established semiconductor ecosystems.

Foundry Integration

Successful commercialization
of devices incorporating our materials requires compatibility with customer-selected semiconductor foundries. Integration typically involves:

• Alignment
with foundry thermal budgets and process flows,

• Back-end-of-line
(“BEOL”) material deposition compatibility,

• Process
design kit (“PDK”) enablement and validation,

• Device
layout and waveguide integration support, and

• Reliability
and environmental qualification testing.

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At present, certain BEOL
polymer deposition and integration processes are performed at our facility in Englewood, Colorado to support development programs, prototyping
activities, and early-stage customer engagements. As customer programs advance toward volume production, we expect to work with foundry
partners to progressively transfer and qualify these BEOL integration steps within customer-preferred semiconductor fabrication environments,
subject to technical validation and foundry readiness.

In certain cases, progression
of customer programs may depend on availability of fabrication slots at customer-preferred foundries, allocation of wafer runs, process
integration readiness, and foundry scheduling considerations. Because we do not control third-party foundry capacity or scheduling priorities,
program timelines may be affected by semiconductor capacity constraints, customer allocation decisions, or shifts in foundry resource
priorities.

Perkinamine Manufacturing
and Supply

Our electro-optic polymer
materials are synthesized and processed at our facility in Englewood, Colorado. Current operations support research, development, customer
sampling, BEOL integration activities, and early-stage commercial supply.

As customer programs advance
toward production ramp, material volume requirements may increase. Scaling production beyond current capacity could require additional
capital investment, equipment procurement, workforce expansion, process automation, supplemental third-party manufacturing arrangements,
and expanded foundry-based BEOL integration.

We maintain procurement relationships
with suppliers of specialty chemical precursors and seek to manage supply chain risk through inventory planning and supplier diversification
where feasible. While our materials are not dependent on rare-earth elements, our supply chain remains subject to general risks affecting
specialty chemical sourcing, including geopolitical developments, transportation disruptions, regulatory changes, and supplier concentration.

Yield, Reliability,
and Production Ramp

Transition to high-volume
production requires achievement of customer-defined qualification milestones, acceptable manufacturing yields, and cost targets. In later
stages of the Design Win Cycle, we support:

• Process
window characterization,

• Yield
improvement initiatives,

• Statistical
process control refinement,

• Cost
modeling and reduction efforts, and

• Validation
of repeatability at scale.

Production ramp may occur
gradually as customers validate reliability under environmental and operational stress conditions and confirm end-market demand.

Based on the current status
of customer programs, we anticipate that revenues, if any, recognized during 2026 would primarily relate to material supply, non-recurring
engineering (“NRE”) arrangements, or prototype and development activities. We do not currently expect significant revenue
from high-volume commercial production of customer products until 2027 at the earliest.

There can be no assurance
that production ramp will occur on anticipated timelines, that foundry capacity will be available as required, or that customer qualification
and yield targets will be achieved.

Scalability Across
Deployment Architectures

As AI networking architectures
expand across scale-up, scale-out, and scale-across applications, the number of deployed optical transceivers and modulator lanes may
increase significantly. Our manufacturing model is intended to support scalability across these deployment dimensions by enabling customers
to utilize established semiconductor fabrication capacity rather than relying on vertically integrated or specialized production facilities.

If customers transition to
volume production incorporating our materials, incremental material demand may scale with transceiver volumes and per-lane deployment
density, subject to architecture selection, foundry integration success, and customer design decisions.

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Intellectual
Property

Our Intellectual Property

Our research and development
efforts over the past 10+ years have yielded our Company an extensive patent portfolio drawn to organic electro-optic (OEO) polymer materials,
silicon photonics, and silicon-organic hybrid (SOH) slot modulator platforms (e.g., photonic integrated circuits (PICs), as well as critical,
related trade secrets and proprietary knowledge. Our intellectual property portfolio has expanded significantly over the few years. We
have actively filed technical utility patents and are currently in the process of readying a number of other inventions for formal filings
in 2026 and 2027. We expect to continue innovating our technology platform over the next decade. We had additional patents issued or
published over the past year indicating that our technology is being recognized as being unique.

In 2018, we acquired the
polymer technology intellectual property assets of BrPhotonics Productos Optoelectrónicos S.A., a Brazilian corporation, which significantly
advanced our patent portfolio of OEO polymer technology with fifteen polymer chemistry materials, devices, packaging and subsystems patents
and further strengthened our design capabilities to solidify our market position as we prepare to enter the 400Gbps integrated photonics
marketplace with a highly competitive, scalable alternative to installed legacy systems.

In 2022, we acquired the
polymer technology and intellectual property assets of Chromosol Ltd (UK), which significantly strengthened our Company's design capabilities
with foundry PDKs with extremely low temperature atomic layer deposition (ALD) processes that effectively hermetically seal SOH and other
OEO polymer devices that have been prepared for high volume manufacturing. The advanced fabrication processes of ALD with temperatures
below 100C° will solidify our market position with both the Company's manufacturing foundry partners as well as end-users as we
prepare to enter the 800Gbps integrated photonics marketplace. The acquisition also advanced our Company’s patent portfolio of
OEO polymer technology with an innovative polymer chemistry device patent that has potential to increase the performance of integrated
modulators through optical amplification in a PIC format and enhance the functionality of the PIC by integrating laser light sources
made using the polymer-based gain and a laser optical cavity defined on the Silicon photonic platform, with our Company’s high
speed, high efficiency modulators.

In total, our patent portfolio
as of December 31, 2025, consists of 67 granted patents that include 45 from the US, 1 from Canada, 2 from the United Kingdom, 12 from
the EU, 1 from Japan, 5 from China (including Hong Kong), and 1 from Korea.

Our materials patent portfolio
has also strengthened significantly with the filing of additional new patent applications on our core Perkinamine® molecular compounds
as well as recent, innovative inventions that are expected to protect our P2IC polymer PIC platform from potential competition.

Included in our patent portfolio
are the following nonlinear optic chromophore designs:

• Stable
Free Radical Chromophores, processes for preparing the same

• Tricyclic
Spacer Systems for Nonlinear Optical Devices

• Anti-Aromatic
Chromophore Architectures

• Heterocyclical
Anti-Aromatic Chromophore Architectures

• Heterocyclical
Chromophore Architectures

• Heterocyclical
Chromophore Architectures with Novel Electronic Acceptor Systems

• Nonlinear
Optical Chromophores Containing Spirofluorene-Isophorone Bridging Groups

• Nonlinear
Optical Chromophores Containing Furanyl Accepting Groups

• Nonlinear
Optical Chromophores Containing 3-Aminocyclohex-2-en-1-one Based Donor Groups

• Nonlinear
Optical Chromophores Containing 3-Methyl-2-cyclopenten-1-one Based Bridge Structures

• Nonlinear
Optical Chromophores with Ring-locked Donors that Increase r33 and Stability

• Nonlinear
Optical Chromophores with Bridges that Increase Refractive Index

• Nonlinear
Optical Chromophores with Acceptors that Increase Refractive Index

• Nonlinear
Optical Chromophores with Donors that Increase Refractive Index

• Nonlinear
Optical Chromophores with Increased Visible Light Transparency

• Nonlinear
Optical Chromophores Containing Donors with Substituents Giving High Steric Hinderance

• Electro-optic
Polymers Devices Having High Performance Claddings

• Nonlinear
Optical Chromophores Comprising a Diamondoid Group

• Nonlinear
Optical Chromophores Containing High Boiling Point Solvents

• Nonlinear
Optical Chromophores Having Tetrahydrocarbazole Donor Groups, Lyotropic Compositions Containing
the Same, and Methods of Poling Such Compositions

• Nonlinear
Optical Chromophores Having Short-chain Bridge Structures, Low Optical Loss Materials Containing
the Same, and Methods for Preparing the Same

• Nonlinear
Optical Chromophores with Indolizine Donor Groups

• Nonlinear
Optical Chromophores with Michler's Base-Type Donors

• Methods
of Synthesizing Chromophore Acceptors

• Mitigating
Photodegradation of Organic Electra-Optic Materials

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Our patent portfolio includes
patents not only to nonlinear optic chromophore designs, but also device designs and inventions, fabrication process inventions, packaging
design inventions, as well as novel chemistry to enable high performance, low power, small footprint polymer PIC technology. Included
in our patent portfolio are the following device designs and fabrication methods:

• Electro-Optic
Polymer Devices Having High Performance Claddings, and Methods of Preparing The Same

• Devices
And Methods For Electro-Optic Polymer Optic Pathways for Poling and Operation

• Materials
for Optoelectronic Devices, Methods of Fabrication Thereof and Materials Therefor

• Wafer-Level
Poling of Electro-Optic Phase Modulators

• Patterning
Techniques for EO Polymer Films for Use in Slot Modulators and Other Applications

• Encapsulation
Material and Processes for Thin Film Devices

• Deposition
Techniques for EO Polymer Films for Use in Slot Modulators and Other Applications

• Intrinsically
Low Resistivity Hybrid Sol-Gel Polymer Clads and Electro-Optic Devices Made Therefrom

Our strategic plan is to
utilize our core proprietary technology and leverage our proprietary optical materials to be the core of and the enabling technology
for future generations of optical devices, modules, sub-systems and systems that we will develop or potentially out-license to electro-optic
device manufacturers. Our Company contemplates future applications that may address the needs of semiconductor companies, automotive/LiDAR
companies, sensing companies, aerospace companies and government agencies.

We rely on a combination
of patents, patent applications, trademarks, trade secrets and contractual provisions to protect our technologies. Further, employees
are required to surrender any inventions or intellectual property developed as part of their employment agreements. We also have a policy
of requiring prospective business partners to enter into non-disclosure agreements (NDAs) before disclosure of any of our confidential
or proprietary information. Our Company can make no assurances that we will be able to effectively protect our technologies and know-how
or that third parties will not be able to develop similar technologies and know-how independently.

Layered Protection
Strategy

Our intellectual property
strategy is designed to provide multiple layers of protection:

1. Composition-of-Matter
Patents

These patents cover proprietary electro-optic polymer formulations and molecular structures.
Composition-of-matter protection may provide broader protection than process-only claims,
subject to enforceability and jurisdictional scope.

2. Process
and Integration Patents

These patents cover fabrication techniques, BEOL integration methods, deposition approaches,
and process compatibility with semiconductor manufacturing environments.

3. Device
Architecture Patents

These patents relate to modulator designs, waveguide geometries, and integration structures
incorporating our materials.

By combining composition,
process, and device-level protection, we seek to support commercialization through material supply, licensing arrangements, and potential
royalty-bearing agreements.

Trade Secrets and Know-How

In addition to patent protection,
we rely on trade secrets, proprietary know-how, and confidentiality agreements to protect aspects of our technology that may not be publicly
disclosed.

These include:

• Detailed
formulation techniques,

• Process
parameters and yield optimization methods,

• Reliability
enhancement techniques, and

• Customer-specific
integration data.

Employees, contractors, and
collaborators are typically subject to confidentiality and intellectual property assignment agreements.

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Patent Term and Limitations

Issued patents have limited
terms and are subject to expiration, challenge, invalidation, or circumvention. Issued patents expire on various dates from 2027 through
2044. The scope, enforceability, and commercial value of individual patents may vary by jurisdiction.

We cannot assure that our
patent portfolio will prevent competitors from developing alternative technologies, that pending applications will mature into issued
patents, or that issued patents will provide a sustained competitive advantage.

IP and Licensing Model
Alignment

Our intellectual property
portfolio supports our business model by enabling:

• Field-of-use
licensing structures,

• Technology
transfer arrangements,

• Material
supply agreements tied to patented integration methods, and

• Potential
royalty-bearing production agreements.

The structure and economics
of such arrangements vary depending on negotiated terms and customer requirements.

Competition

The markets for optical modulators
and silicon photonics technologies are highly competitive and characterized by rapid technological change, evolving industry standards,
and significant capital investment. We compete with a range of companies developing alternative materials systems, device architectures,
and integration approaches.

Many of our current and potential
competitors are larger, more established companies with substantially greater financial, technical, manufacturing, and marketing resources.
Some competitors operate their own wafer fabrication facilities or are vertically integrated across multiple layers of the photonics
value chain.

Competing Technologies

Optical modulators may be
implemented using several different material platforms and device structures, including:

Silicon-Based Modulators

Conventional silicon photonics
modulators typically rely on carrier depletion or carrier injection effects within silicon waveguides. These approaches benefit from
compatibility with established CMOS fabrication processes and large-scale foundry ecosystems. Ongoing development efforts seek to improve
bandwidth, reduce power consumption, and enhance integration density.

Thin-Film Lithium Niobate
(TFLN)

Thin-film lithium niobate
technologies leverage the electro-optic properties of crystalline materials to achieve high-speed modulation. TFLN solutions have gained
attention for bandwidth performance and may be deployed in both pluggable transceiver and advanced packaging architectures.

III-V Compound Semiconductor
Devices

Indium phosphide and other
III-V material systems are used in certain modulated laser and photonic device architectures. These technologies are widely deployed
in telecommunications and coherent optical systems and benefit from long operational track records.

Other Emerging Materials
and Architectures

Additional material platforms
and hybrid integration approaches continue to be explored within the industry, including heterogeneous integration and novel electro-optic
materials.

Architectural Tradeoffs
and Industry Dynamics

The rapid growth of AI networking
has placed significant performance and power-efficiency pressure on optical interconnect technologies. As aggregate data rates move toward
1.6T and beyond, industry participants are evaluating multiple architectural pathways to achieve required throughput.

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Many development efforts
are focused on increasing per-lane data rates through ultra-high-speed modulators capable of operating at 200G per lane and beyond. Higher
per-lane bandwidth can reduce the number of required lanes, potentially lowering packaging complexity, footprint, and power consumption.

However, if ultra-high-speed
modulation targets prove difficult to achieve reliably, economically, or at acceptable yields, system designers may adopt alternative
scaling strategies. These may include increasing the number of parallel optical lanes while operating at lower per-lane speeds, sometimes
referred to as “wide and slow” architectures. Such approaches can increase aggregate throughput by expanding lane count rather
than pushing the performance limits of individual modulators.

The relative adoption of
high-speed per-lane scaling versus wider parallel implementations will depend on technical feasibility, power budgets, packaging constraints,
yield performance, and overall system economics.

Our electro-optic polymer
materials are designed to support high-speed, high-bandwidth optical modulation and compact device geometries, which may be relevant
in architectures prioritizing higher per-lane bandwidth. At the same time, broader architectural shifts toward increased parallelism
could alter modulator content requirements, integration approaches, and competitive dynamics.

Competitive Factors

Adoption of optical modulation
technologies depends on a range of technical and commercial factors, including:

• Achievable
modulation bandwidth and signal integrity,

• Drive
voltage requirements and associated power consumption,

• Compatibility
with established semiconductor fabrication processes,

• Reliability
and environmental stability,

• Yield
performance and cost at scale,

• Ecosystem
support and foundry availability, and

• Qualification
history and customer risk tolerance.

While our materials are engineered
to address several of these factors, competing technologies may improve over time, may offer advantages in certain applications, or may
benefit from earlier market adoption and established customer relationships.

Market Adoption Considerations

Customers in the data center
and telecommunications markets typically require extensive qualification cycles and long-term reliability validation before deploying
new technologies. Switching costs, ecosystem inertia, and supplier relationships may influence technology selection decisions.

Even where performance advantages
are demonstrated, adoption may depend on:

• Availability
of foundry capacity,

• Alignment
with customer product roadmaps,

• Cost
competitiveness at target volumes,

• Broader
industry standardization trends, and

• Architectural
decisions regarding per-lane scaling versus parallel expansion.

There can be no assurance
that our technology will achieve widespread market adoption or that it will displace incumbent solutions in any given application.

Human
Capital

As of December 31, 2025,
we employed 34 full-time employees (FTEs), excluding two employees that retired on December 31, 2025. Our workforce includes personnel
engaged in research and development, materials synthesis, device integration, process engineering, quality control, business development,
and general and administrative functions. Approximately 23 FTEs were engaged in research and development activities and 11 FTEs were
engaged in selling, general and administrative functions.

Our technical team includes
scientists and engineers with backgrounds in organic chemistry, polymer science, photonics, semiconductor process integration, materials
engineering, and device design. Many members of our technical staff have prior experience in semiconductor manufacturing environments,
silicon photonics development, or specialty materials commercialization.

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Technical Expertise
and Commercialization Focus

Our commercialization strategy
requires cross-disciplinary expertise spanning materials chemistry, device physics, semiconductor process integration, reliability engineering,
and customer support. As customer programs progress through the Design Win Cycle, our technical personnel support:

• Material
formulation optimization,

• Back-end-of-line
(“BEOL”) integration process development,

• Process
design kit (“PDK”) enablement,

• Yield
improvement and reliability validation,

• Alignment
with customer product roadmaps, and

• Foundry
coordination and technology transfer activities.

We continue to evaluate hiring
needs based on program progression, manufacturing scale requirements, and strategic priorities.

Talent Retention and
Competition

The markets in which we operate
are characterized by competition for highly skilled technical personnel, particularly in semiconductor process engineering, photonics
design, and advanced materials development. Our ability to attract, develop, and retain qualified employees is important to our long-term
success.

We seek to foster a collaborative
environment focused on innovation, technical rigor, and disciplined commercialization. Our compensation programs are designed to align
employee interests with long-term stockholder value and may include equity-based incentives.

Workforce Development
and Culture

We emphasize cross-functional
collaboration among materials scientists, engineers, and commercial personnel to support integration within semiconductor manufacturing
ecosystems. As we transition from research-focused activities toward commercialization and production ramp, we continue to evolve internal
processes, documentation standards, and quality systems to support scalable operations.

We are committed to maintaining
a safe working environment and complying with applicable labor, environmental, and safety regulations.

Facilities

Our principal executive offices
and laboratory facilities are located in Englewood, Colorado. This facility supports research and development activities, electro-optic
polymer synthesis, materials characterization, device integration, back-end-of-line (“BEOL”) process development, and early-stage
commercial material supply.

The Englewood facility houses
laboratory space, materials processing equipment, analytical instrumentation, and office space supporting scientific, engineering, and
administrative functions. Current operations are designed to support customer evaluation programs, prototype support, BEOL integration
activities, and limited commercial material production.

As customer programs advance
toward potential high-volume production, additional capital investment, equipment procurement, facility expansion, or supplemental third-party
manufacturing arrangements may be required to support increased material output and process scale.

We believe our existing facilities
are adequate to support current operations. Future facility requirements will depend on commercialization progress, production ramp timelines,
and strategic capital allocation decisions.

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Glossary

Glossary of select technology terms
to provide you with a better understanding our Company’s technology and devices:

Electro-optic
devices - Electro-optic devices convert data from electric signals into optical signals for use in communications systems
and in optical interconnects for high-speed data transfer.

Electro-optic material
- Electro-optic material is the core active ingredient in high-speed fiber-optic telecommunication systems. Electro-optic
materials are materials that are engineered at the molecular level. Molecular level engineering is commonly referred to as “nanotechnology.”

Electro-optic modulators
- Electro-optic (E/O) modulators are electro-optic devices that perform electric-to-optic conversions within the infrastructure
of the internet. Data centers may also benefit from this technology through devices that could significantly increase bandwidth and speed
while decreasing costs. Polymer E/O modulators can be designed and fabricated with multiple structures. The waveguides allow the light
to be efficiently coupled into and out of the modulators, and provide a basis for integrating modulators together.

Photonic Devices
- Photonic devices are components for creating, manipulating, or detecting light. This can include modulators, laser diodes,
light-emitting diodes, solar and photovoltaic cells, displays and optical amplifiers. Other examples are devices for modulating a beam
of light and for combining and separating beams of light of different wavelength.

Polymers - Polymers,
also known as plastics, are large carbon-based molecules that bond many small molecules together to form a long chain. Polymer materials
can be engineered and optimized using nanotechnology to create a system in which unique surface, electrical, chemical, and electro-optic
characteristics can be controlled. Materials based on polymers are used in a multitude of industrial and consumer products, from automotive
parts to home appliances and furniture, as well as scientific and medical equipment.

Available Information

We maintain a website
at www.lightwavelogic.com. We make available on our website under “Investors” – “SEC Filings,” free of
charge, our annual reports on Form 10-K, quarterly reports on Form 10-Q, current reports on Form 8-K, and amendments to those reports
as soon as reasonably practicable after we electronically file or furnish such material with the SEC. References to our website in this
report are provided as a convenience, and the information on our website is not, and shall not be deemed to be a part of this Annual
Report on Form 10-K or incorporated into any other filings we make with the SEC. The SEC maintains an Internet site (www.sec.gov) that
contains reports, proxy and information statements, and other information regarding issuers that file electronically with the SEC. In
addition, we make available on our website under “Investors – Corporate Governance – Governance Documents”, free
of charge, our Audit Committee Charter, Compensation Committee Charter, Nominating and Corporate Governance Committee Charter and Code
of Ethics and Business Conduct.

We were incorporated under
the laws of the State of Nevada on June 24, 1997. In 2004, we acquired PSI-TEC Corp., and in 2006 we merged with PSI-TEC Corp. In 2008,
we changed our name to Lightwave Logic, Inc.

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