Item 2. Management’s Discussion and Analysis
ITEM
2.
MANAGEMENT’S
DISCUSSION AND ANALYSIS OF FINANCIAL CONDITION AND RESULTS OF OPERATIONS
The
following discussion of our financial condition and results of operations should be read in conjunction with our unaudited condensed
consolidated financial statements and the related notes thereto and other financial information included elsewhere in this report. For
additional context with which to understand our financial condition and results of operations, see the management’s discussion
and analysis included in our Form 10-K, filed with the SEC on March 9, 2022, our first quarter Form 10-Q filed with the SEC on May 9,
2022, as well as the financial statements and related notes contained therein.
As
used in the discussion below, “we,” “our,” and “us” refers to Lipocine.
Forward-Looking
Statements
This
section and other parts of this report contain forward-looking statements within the meaning of Section 27A of the Securities Act of
1933, as amended, and Section 21E of the Securities Exchange Act of 1934, as amended, that involve risks and uncertainties. Forward-looking
statements provide current expectations of future events based on certain assumptions and include any statement that does not directly
relate to any historical or current fact. Forward-looking statements may refer to such matters as products, product benefits, pre-clinical
and clinical development timelines, clinical and regulatory expectations and plans, expected responses to regulatory actions, anticipated
financial performance, future revenues or earnings, business prospects, projected ventures, new products and services, anticipated market
performance, expected research and development and other expenses, future expectations for liquidity and capital resources needs and
similar matters. Such words as “may”, “will”, “expect”, “continue”, “estimate”,
“project”, and “intend” and similar terms and expressions are intended to identify forward looking statements.
Forward-looking statements are not guarantees of future performance and our actual results may differ significantly from the results
discussed in the forward-looking statements. Factors that might cause such differences include, but are not limited to, those discussed
in Part II, Item 1A (Risk Factors) of this Form 10-Q, or in Part II, Item 1A (Risk Factors) of our Form 10-Q for the quarter ended March
31, 2022 filed with the SEC on May 9, 2022 or in Part I, Item 1A (Risk Factors) of our Form 10-K filed with the SEC on March 9, 2022.
Except as required by applicable law, we assume no obligation to revise or update any forward-looking statements for any reason.
Overview
of Our Business
We
are a biopharmaceutical company focused on metabolic and CNS disorders using our proprietary oral drug delivery technology. Our proprietary
delivery technologies are designed to improve patient compliance and safety through orally available treatment options. Our primary development
programs are based on oral delivery solutions for poorly bioavailable drugs. We have a portfolio of differentiated innovative product
candidates that target high unmet needs for neurological and psychiatric CNS disorders, liver diseases, and hormone supplementation for
men and women. We entered into a license agreement for the development and commercialization our product candidate, TLANDO®, an oral
testosterone replacement therapy (“TRT”) comprised of testosterone undecanoate (“TU”). On October 14, 2021, we
entered into a license agreement (the “Antares License Agreement”) with Antares Pharma, Inc. (“Antares” or our
“Licensee”), pursuant to which we granted to Antares an exclusive, royalty-bearing, sublicensable right and license to develop
and commercialize, upon final approval of TLANDO from the United States Food and Drug Administration (“FDA”), the TLANDO
product for TRT in the U.S. TLANDO is a registered trademark assigned to Antares. Any FDA required post-marketing studies will also be
the responsibility of our licensee, Antares. On March 28, 2022, Antares received approval from the FDA for TLANDO as a TRT in adult males
for conditions associated with a deficiency of endogenous testosterone, also known as hypogonadism. On May 24, 2022, Halozyme Therapeutics
completed an acquisition of Antares Pharma Inc. through a merger of a wholly owned subsidiary of Halozyme with and into Antares, with
Antares continuing as the surviving corporation and becoming a wholly owned subsidiary of Halozyme. On June 7, 2022, Halozyme announced
the commercial launch of TLANDO®, an oral treatment indicated for testosterone replacement therapy in adult males for conditions
associated with a deficiency or absence of endogenous testosterone (primary or hypogonadotropic hypogonadism).
Additional
pipeline candidates include: LPCN 1148 comprising a novel prodrug of testosterone, testosterone laurate (“TL”), for the management
of decompensated cirrhosis; LPCN 1144, an oral prodrug of androgen receptor modulator for the treatment of non-cirrhotic non-alcoholic
steatohepatitis (“NASH”) which has completed phase 2 testing; LPCN 1111, a next generation oral TRT product comprised of
testosterone tridecanoate (“TT”) with the potential for once daily dosing which has completed Phase 2 testing; LPCN 1107,
potentially the first oral hydroxy progesterone caproate (“HPC”) product indicated for the prevention of recurrent preterm
birth (“PTB”), which has completed a dose finding clinical study in pregnant women and has been granted orphan drug designation
by the FDA; LPCN 1154 for postpartum depression (“PPD”); and LPCN 2101 for epilepsy.
21
The
following chart summarizes the status of our product candidate development programs:
To
date, we have funded our operations primarily through the sale of equity securities, debt and convertible debt and through up-front payments,
research funding and royalty and milestone payments from our license and collaboration arrangements. We have not generated any revenues
from product sales and we do not expect to generate revenue from product sales and we do not expect to generate revenue, other than TLANDO
royalties and potential milestone payments from product sales by Antares, unless and until we obtain regulatory approval of our pipeline
product candidates.
We
have incurred losses in most years since our inception. As of June 30, 2022, we had an accumulated deficit of $178.8 million. Income
and losses fluctuate year to year, primarily depending on the nature and timing of research and development occurring on our product
candidates. Our net loss was $6.1 million for the six months ended June 30, 2022, compared to $10.2 million for the six months ended
June 30, 2021. Substantially all of our operating losses resulted from expenses incurred in connection with our product candidate development
programs, our research activities and general and administrative costs including litigation costs, associated with our operations.
We
expect to continue to incur significant expenses and operating losses for the foreseeable future as we:
●
conduct
further development of our other product candidates, including LPCN 1148, LPCN 1144, LPCN 1107, LPCN 1154 and LPCN 2101;
●
continue
our research efforts;
●
research
new products or new uses for our existing products;
●
maintain,
expand and protect our intellectual property portfolio; and
●
provide
general and administrative support for our operations.
To
fund future long-term operations, including the potential commercialization of any of our product candidates, we will need to raise additional
capital. The amount and timing of future funding requirements will depend on many factors, including capital market conditions, the commercial
success of TLANDO, regulatory requirements related to our other product development programs, the timing and results of our ongoing development
efforts, the potential expansion of our current development programs, potential new development programs, our ability to license our
products to third parties, the pursuit of various potential commercial activities and strategies associated with our development programs
and related general and administrative support. We anticipate that we will seek to fund our operations through public or private equity
or debt financings or other sources, such as potential license, partnering and collaboration agreements. We cannot be certain that anticipated
additional financing will be available to us on favorable terms, in amounts sufficient to fund our operations or at all. Although we
have previously been successful in obtaining financing through public and private equity securities offerings and our license and collaboration
agreements, there can be no assurance that we will be able to do so in the future.
22
Corporate
Strategy
Our
goal is to become a leading biopharmaceutical company focused on applying our proprietary drug delivery technology for the development
of pharmaceutical products focusing on neuroendocrine and metabolic disorders. The key components of our strategy are to:
Build
a diversified multi-asset pipeline of novel therapies. We intend to employ a value-driven strategy based on our proprietary technology
platform to identify and develop product candidates for neuroendocrine and metabolic disorders including Central Nervous System (“CNS”)
disorders and end stage diseases such as decompensated cirrhosis. We intend to focus on product candidates that we believe are differentiated,
have attractive profiles, and address a clear unmet medical need that we can advance quickly and efficiently into late-stage development.
Advance
LPCN 1148, a unique prodrug of androgen receptor agonist to manage end stage (decompensated) liver cirrhosis disease. We believe
LPCN 1148, a novel prodrug of testosterone, could address a significant unmet medical need in patients with decompensated liver cirrhosis
accompanied with muscle disorder such as secondary sarcopenia. Sarcopenia in male cirrhotic patients is known to be independently associated
with poor outcomes including quality of life, increased decompensation events such as hepatic encephalopathy, increased hospital admissions,
and increased mortality rate. We believe LPCN 1148 may be eligible for an orphan drug designation. Enrollment in a multi-center placebo-controlled
phase 2 trial is currently ongoing.
Support
our licensee in commercialization of our licensed oral TRT option . We believe the TRT market needs a differentiated, convenient oral
option. We have exclusively licensed rights to TLANDO to Antares for commercialization of TLANDO in the US. We plan to support our licensee’s
efforts to effectively enable the availability of TLANDO to patients in a timely manner, in addition to receiving milestone and royalty
payments associated with TLANDO commercialization as agreed to in the Antares License Agreement.
Develop
partnership(s) to continue the advancement of pipeline assets . We continuously strive to prioritize our resources in seeking co-development
partnerships of our pipeline assets. We currently plan to explore partnering of LPCN 1144, our candidate for treatment of non-cirrhotic
NASH, LPCN 1107, our candidate for prevention of pre-term birth, and LPCN 1111, a once-a-day therapy candidate for TRT.
Our
Product and Product Candidates
Our
pipeline of clinical candidates includes LPCN 1148, an androgen therapy for the management of cirrhosis, LPCN 1144, an oral androgen
therapy for the treatment of non-cirrhotic NASH, LPCN 1111, a next-generation potential once daily oral TRT, LPCN 1107, an oral therapy
for the prevention of PTB, LPCN 1154 for postpartum depression (“PPD”) and LPCN 2101 for epilepsy. We will continue to explore other product
candidates targeting indications with a significant unmet need.
Our
products are based on our proprietary Lip’ral drug delivery technology platform. Lip’ral based TLANDO was approved in March
2022. Lip’ral technology is a patented technology based on lipidic compositions which form an optimal dispersed phase in the gastrointestinal
environment for improved absorption of insoluble drugs. The drug loaded dispersed phase presents the solubilized drug efficiently at
the absorption site (gastrointestinal tract membrane) thus improving the absorption process and making the drug less dependent on physiological
variables such as dilution, gastro-intestinal pH and food effects for absorption. Lip’ral based formulation enables improved solubilization
and higher drug-loading capacity, which can lead to improved bioavailability, reduced dose, faster and more consistent absorption, reduced
variability, reduced sensitivity to food effects, improved patient compliance, and targeted lymphatic delivery where appropriate.
TLANDO:
An Oral Product for Testosterone Replacement Therapy
As
previously described, under the Antares License Agreement, we granted to Antares an exclusive, royalty-bearing, sublicensable right and
license to develop and commercialize, upon final approval of TLANDO from the FDA, our TLANDO product for TRT in the U.S. On December
8, 2020, the FDA provided tentative approval for TLANDO as a TRT in adult males for conditions associated with a deficiency of endogenous
testosterone, also known as hypogonadism. The FDA provided final approval of TLANDO on March 28, 2022. Any FDA requirement to conduct
certain post-marketing studies will be the responsibility of our licensee, Antares. On May 24, 2022, Halozyme Therapeutics completed
an acquisition of Antares Pharma Inc. through a merger of a wholly owned subsidiary of Halozyme with and into Antares, with Antares continuing
as the surviving corporation and becoming a wholly owned subsidiary of Halozyme.
23
Proof-of-concept
for TLANDO was initially established in 2006, and subsequently TLANDO was licensed in 2009 to Solvay Pharmaceuticals, Inc., which
was then acquired by Abbott Products, Inc. (“Abbott”). Following a portfolio review associated with the spin-off of
AbbVie Inc. by Abbott in 2011, the rights to TLANDO were reacquired by us. All obligations under the prior license agreement have
been completed except that Lipocine will owe Abbott a perpetual 1% royalty on net sales. Such royalties are limited to $1 million in
the first two calendar years following product launch, after which period there is no cap on royalties and no maximum aggregate
amount. If generic versions of any such product are introduced, then royalties are reduced by 50%. During the three and six months
ended June 30, 2022, we incurred royalty expense of $17,000 resulting from the commercial launch of TLANDO in June 2022.
Under
the Pediatric Research Equity Act (“PREA”), since TLANDO received full FDA approval, under the Antares Licensing Agreement
Antares will need to address the PREA requirement to assess the safety and effectiveness of TLANDO in pediatric patients. The FDA may
also require certain post-marketing studies to be conducted which will also be the responsibility of our licensee, Antares.
Upon
execution of the Antares License Agreement, Antares paid to us an initial payment of $11.0 million. Antares will also make additional
payments of $5.0 million to us on each of January 1, 2025, and January 1, 2026, provided that certain conditions are satisfied. We are
also eligible to receive milestone payments of up to $160.0 million in the aggregate, depending on the achievement of certain sales milestones
in a single calendar year with respect to all products licensed by Antares under the Antares License Agreement. In addition, upon commercialization,
we will receive tiered royalty payments at rates ranging from percentages in the mid-teens to up to 20% of net sales of TLANDO in the
United States, subject to certain minimum royalty obligations. Further, on October 14, 2021, we assigned our Manufacturing Agreement,
dated August 27, 2013, by and between the Company and Encap Drug Delivery (the “Manufacturing Agreement”) to Antares as part
of the Antares License Agreement.
We
are exploring the possibility of licensing LPCN 1021 (known as TLANDO in the United States) to third parties outside the United States,
although no licensing agreement has been entered into by the Company. If and when an agreement is made with a partner, such arrangement
would likely be contingent upon obtaining acceptable cost of goods by securing an agreement with a new manufacturer in addition to obtaining
local regulatory approval. No assurance can be given that any license agreement will be completed, or, if an agreement is completed,
that such an agreement would be on terms favorable to us.
Our
Development Pipeline
LPCN
1148: Oral Product Candidate for the Management of Decompensated Cirrhosis
We
are currently evaluating LPCN 1148 comprising testosterone laurate (“TL”) for the management of decompensated cirrhosis.
We believe LPCN 1148 targets unmet needs for cirrhosis subjects including improvement in the quality of life of patients while on the
liver transplant waiting list, prevention or reduction in the occurrence of new decompensation events, and improvement in post liver
transplant survival, including outcomes and costs.
We
are currently conducting a Phase 2 proof of concept (“POC”) study (NCT04874350) in male cirrhotic subjects to evaluate the
therapeutic potential of LPCN 1148 for the management of sarcopenia. The ongoing Phase 2 POC study is a prospective, multi-center, randomized,
placebo-controlled study in male sarcopenic cirrhotic patients. Subjects will be randomized 1:1 to one of two arms. The treatment arm
is an oral dose of LPCN 1148, and the second arm is a matching placebo. The primary endpoint is change in skeletal muscle index at week
24 with key secondary endpoints including change in liver frailty index, rates of breakthrough hepatic encephalopathy, and number of
waitlist events, including all-cause mortality. Total treatment is expected to be 52 weeks. We currently expect enrollment in the Phase
2 study to be complete in the second half of 2022 and top-line 24-week results in the first half of 2023.
Possible
outcomes of interest from the Phase 2 study include clinical outcomes such as overall survival and new decompensation events (including
hepatic encephalopathy and/or ascites occurrences), rates of survival to transplant, rates of hospitalizations, infections, etc., muscle
changes such as muscle mass, body composition, myosteatosis (muscle fat), functional capacity changes such as liver frailty index (“LFI”),
patient reported outcomes (“PROs”), and biochemical markers including hematocrit for anemia status, albumin, creatinine/kidney
function, etc.
24
Disease
Overview – Cirrhosis
There
are over 2 million cases of cirrhosis worldwide, with over 500,000 people living with decompensated cirrhosis in the U.S. and nonalcoholic
fatty liver disease is the most rapidly increasing indication for liver transplant. 62% of those on the liver transplant (“LT”)
waitlist are male and the economic burden (approximately $812,500/transplant) is high and continues to increase. Each year about half
of the approximately 17,000 people in U.S. on the LT waitlist undergo transplant, while nearly 3,000 patients either die or are removed
from the list because they were “too sick to transplant.”
Liver
cirrhosis is defined as the histological development of regenerative nodules surrounded by fibrous bands. Cirrhotic patients typically
have a years-long silent, asymptomatic phase (compensated cirrhosis) until decreasing liver function and increasing portal pressure move
the patient into the symptomatic phase (decompensated cirrhosis). Transition to decompensated cirrhosis is marked by clinical events
including ascites, encephalopathy, jaundice, and/or variceal hemorrhage. Decompensated subjects survive on average less than 2 years.
Common causes of liver cirrhosis include alcoholic liver disease, nonalcoholic fatty liver disease (“NAFLD”), chronic hepatitis B and C,
primary biliary cirrhosis (“PBC”), primary sclerosing cholangitis (“PSC”) and cryptogenic.
Common
complications in cirrhotic patients may include: compromised liver function, portal hypertension, varices in GI tract with internal bleeding,
edema, ascites, hepatic encephalopathy, compromised immunity with post-transplant acute rejection risk, high sodium levels, increased
bilirubin, low albumin level, insulin resistance with impaired peripheral uptake of glucose, depression, accelerated muscle disorder
in the form of sarcopenia, myosteotosis, and frailty with compromised energetics, bone diseases (e.g., osteoporosis), high alkaline phosphatase
(“ALP”), cachexia, malnutrition, weight loss (>5%), symptoms of hypogonadism such as abnormal hair distribution, anemia, sexual dysfunction,
testicular atrophy, muscle wasting, fatigue, osteoporosis, gynecomastia, inflammation with elevated cytokines, and infection risk leading
to hospital admissions and possibly death.
Hepatic
encephalopathy (“HE”), a significant decompensation event in patient with cirrhosis, is a brain dysfunction caused by liver
insufficiency and/or portal systemic shunting. Because the damaged liver cannot function normally (as in cirrhosis), neurotoxins such
as ammonia are inadequately removed from systemic circulation and travel to the brain, where they affect neurotransmission. This can
cause episodes of HE, which may present as alterations in consciousness, cognition, and behavior that range from minimal to severe. Overt
HE occurs in 30% to 40% of patients with cirrhosis at some point during the clinical course of their disease. As the burden of chronic
liver disease and cirrhosis is increasing, the frequency of HE is also increasing.
Muscle
Disorders and Cirrhosis
Muscle
disorders secondary to cirrhosis could be manifested in the form of several inter-related characteristics such as sarcopenia, myosteatosis,
and frailty impacting muscle mass, strength, quality, and function. Chronic inflammation and oxidative stress have also been reported
to accelerate muscle wasting. Muscle also plays a significant compensatory role in detoxifying ammonia, a neurotoxin and a myotoxin implicated
in precipitation of HE in cirrhosis patients.
Sarcopenia
and associated frailty affect up to 70% of cirrhotic men and are a leading cause of patients being removed from the LT waitlist. Due
to the lack of available organs and aging demographics of those on the waitlist, patients that do receive a transplant are “increasingly
being described as frail”. The presence of sarcopenia or frailty is associated with increased risk of hospitalization and hepatic
decompensation, a two-fold increase in waitlist mortality, poor post-transplant outcomes, and reportedly is equivalent to adding 9-10
points to the Model for End-Stage Liver Disease (“MELD”) score.
Sarcopenia
is typically associated with body composition changes with decreased muscle mass and/or low skeletal muscle index. Change in one or more
of appendicular lean mass, total lean mass, fat mass, high VAT (visceral adipose tissue), waist circumference, weight, and/or BMI are
notable features. Myosteatosis (fat infiltration in muscles) is indicative of poor muscle quality. Frailty is a state of low energetics
accompanied with low physical performance/mobility probably because of poor muscle strength/function and is assessed via various measures
such as decreased gait speed, weak hand grip; slow rising from a chair, balance, isometric knee extension peak torque or a composite
measure such as liver frailty index (“LFI”).
Reportedly,
as shown in the figure below, muscle disorder such as sarcopenia and myosteatosis in cirrhosis could be a clinically meaningful predictor
of survival and mortality with lower survival in cirrhotic patients with accompanying muscle disorders.
25
Montano-Loza,
J Cachexia Sarcopenia Muscle. 2016 May; 7(2): 126–135
Muscle
Disorders and Mortality in Liver Cirrhosis
Sarcopenia
develops in the majority of male cirrhosis patients. The main mechanisms associated with sarcopenia and decompensated cirrhosis include
a catabolic state, progressive immobility, imbalance between muscle breakdown and formation, and hormonal changes. Patients are typically
diagnosed with decompensated cirrhosis upon development of cirrhotic symptoms (e.g., jaundice, HE), and the diagnosis is confirmed via
various liver function/imaging tests (e.g., MELD score, liver biopsy, CT scan). A variety of clinical evaluations for muscle mass, strength,
and function are typically used to diagnose sarcopenia. Sarcopenia in cirrhosis also correlates with decompensation events, particularly
HE (sarcopenia is about 2-fold more prevalent in overt HE patients than those without overt HE). Notably, low testosterone in males is
associated with sarcopenia, severity of cirrhosis, and mortality.
26
Reportedly,
as shown in figure below, sarcopenia is a predictor for increased mortality in cirrhosis (about 2-fold higher compared to no sarcopenia).
Tantai
et al. J. Hepatol. 2022, 76, 588–599
Reportedly,
as shown in figure below, pre transplant sarcopenia in liver cirrhosis often produces poor post-transplant outcomes with higher mortality
rates. Longer post-transplant hospitalization and rehabilitation can be demanding on the individual, both physically and financially.
Englesbe
et al. J Am Coll Surg. 2010 Aug;211(2):271-8
27
Myosteatosis
in cirrhosis
Myosteatosis,
fat infiltration in muscles, has been found in many cirrhotic patients undergoing liver transplant evaluation, and studies have associated
it with more complications and poor survival. Myosteatosis is characteristically associated with liver steatosis in NAFLD, resulting
from ectopic fat accumulation in skeletal muscle. Myosteatosis may affect many individuals who do not meet the anthropometric criteria
for sarcopenia or obesity. The accumulation of excess fat in extramyocellular compartments is mostly pathologic. It can be defined as
intramuscular (between muscle fibers) or intermuscular (between muscle fascicles) and is associated with lower muscle function and strength,
muscle atrophy, and physical disabilities.
Frailty
and cirrhosis
Frailty
is a state of low energetics accompanied with low physical performance/mobility, usually as a result of poor muscle strength/function
and its presence is assessed via various measures such as decreased gait speed, weak hand grip, slow rising from a chair, poor balance,
low isometric knee extension peak torque or a composite measure such as LFI.
Reportedly,
as shown in figure below, frailty predicts LT waitlist mortality among outpatients with cirrhosis regardless of the MELD score.
Lai
et al. Am J Transplant. 2014 Aug;14(8):1870-9
The
presence of frailty is associated with increased waitlist death/delisting
Moreover,
it has also been reported, as shown in figure below, that there is a higher incidence of waitlist mortality as the frailty worsened.
28
Lai
et al. J Hepatol. 2020 Sep;73(3):575-581.
Trajectory
of liver frailty and mortality
Currently,
there are no FDA approved drugs to treat secondary sarcopenia in cirrhosis. We believe we are the only clinical-stage company pursuing
decompensation in sarcopenic cirrhotic patients, and no regulatory precedent currently exists for the approval of decompensation or sarcopenia-targeted
therapies. We believe LPCN 1148 has the potential to aid the management of decompensation events in male sarcopenic cirrhotic patients
through the following possible mechanisms of action: myo-augmentation (impact muscle mass and/or quality and/or function) via myostatin
inhibition, myosteatosis reduction, anti-catabolic effect, changes in body composition (increase lean mass and/or reduce fat mass) and
slowing muscle autophagy; inducing hepato-effective actions with improved key liver injury markers; increase protein synthesis; improve
anemia, induce immunomodulation with improvement of immuno-dysregulation, and lower infection rates; anti-inflammatory/antioxidant effects
by lowering undesirable cytokines such as IL-1, IL-6, and TNF-α; and improve mitochondrial function. (1)
(1)
Ref:
Leise. Mayo Clin Proc. 2014.; Hudson. Eur J Gastroenterol. 2019.; Bajaj. Clin Gastroenterol Hepatol. 2017.; Bohra. World J Gastroenterol.
2020.; Carey, Hepatology, 2019; Sinclair, Ailment Pharmacol Ther, 2016; Lai, Am J Transplant, 2014; Montano-Loza, Clin Transl Gastroenterol,
2015; Kahn, Clin Transp, 2018; Montano-Loza, J Cach, Sarco, and Musc, 2016.
LPCN
1144: An Oral Prodrug of Bioidentical Testosterone Product Candidate for the Treatment of NASH
We
are currently evaluating LPCN 1144, an oral prodrug of bioidentical testosterone comprised of TU, for the treatment of non-cirrhotic
NASH.
29
Disease
Overview – NASH
NASH is a more advanced state of non-alcoholic fatty liver disease (“NAFLD”)
and can progress to a cirrhotic liver or liver failure, require liver transplant, and can result in
hepatocellular carcinoma/ liver cancer, and death. Progression of NASH to end stage liver disease will soon surpass all other causes
of liver failure requiring liver transplantation. Importantly, beyond these critical conditions, NASH and NAFLD patients additionally
suffer heightened cardiovascular risk and, in fact, die more frequently from cardiovascular events than from liver disease. NAFLD/NASH
is becoming more common due to its strong correlation with obesity and metabolic syndrome, including components of metabolic syndrome
such as diabetes, cardiovascular disease and high blood pressure. Twenty to thirty percent of the U.S. population is estimated to suffer
from NAFLD and fifteen to twenty percent of this group progress to NASH, which is a substantially large population that lacks effective
therapy. NASH is a silent killer that affects millions in the U.S. Diagnoses have been on the rise and are expected to increase dramatically
in the next decade. Approximately 50% of NASH patients are in adult males In men, especially with comorbidities associated with NAFLD/NASH,
testosterone deficiency has been associated with an increased accumulation of visceral adipose tissue and insulin resistance, which could
be factors contributing to NAFLD/NASH. There is currently no approved therapy for the treatment of NASH although there are several drug
candidates currently under development with many having clinical failures to date.
The
critical pathophysiologic mechanisms underlying the development and progression of NASH include reduced ability to handle lipids, increased
insulin resistance, injury to hepatocytes and liver fibrosis in response to hepatocyte injury. NASH patients have an excessive accumulation
of fat in the liver resulting primarily from a caloric intake above and beyond energy needs. A healthy liver contains less than 5% fat,
but a liver in someone with NASH can contain more than 20% fat. This abnormal liver fat contributes to the progression to NASH, a liver
necro-inflammatory state that can lead to scarring, also known as fibrosis, and, for some, can progress to cirrhosis and liver failure.
Markers
of Liver Cell Death
Alanine
aminotransferase (“ALT”) is an enzyme that is produced in liver cells and is naturally found in the blood of healthy individuals.
In liver disease, liver cells are damaged and as a consequence, ALT is released into the blood, increasing ALT levels above the normal
range. Physicians routinely test blood levels of ALT to monitor the health of a patient’s liver. ALT level is a clinically important
biochemical marker of the severity of liver inflammation and ongoing liver disease. Elevated levels of ALT represent general markers
of liver cell death and inflammation without regard to any specific mechanism. Aspartate aminotransferase (“AST”) is a second
enzyme found in the blood that is produced in the liver and routinely measured by physicians along with ALT. As with ALT, AST is often
elevated in liver disease and, like ALT, is considered an overall marker of liver inflammation.
Diagnosis
Most
people with NASH are asymptomatic and their disease is often discovered incidentally following a liver imaging procedure, such as an
ultrasound, prescribed for other reasons or as part of an investigation for elevated liver enzymes. Once suspected clinically, a liver
biopsy is required to definitively diagnose NASH, which necessitates the joint presence of steatosis, ballooning and lobular inflammation.
Once pathologically confirmed, the severity of NAFLD and NASH is determined using the histologically validated NAFLD activity score,
which grades disease activity on a scale of 0 to 8. The NAFLD activity score is the sum of the individual scores for steatosis (0 to
3), lobular inflammation (0 to 3), and hepatocellular ballooning (0 to 2) but does not include a score for fibrosis. Fibrosis staging
(F0-F4) relies on the NASH CRN classification (F0 = no fibrosis; F1 = perisinusoidal or portal/periportal fibrosis (not both); F2 = both
perisinusoidal and portal/periportal fibrosis; F3 = bridging fibrosis; F4 = cirrhosis).
Histological
diagnosis remains the gold standard for assessment of NASH and fibrosis. However, given that liver biopsy is associated with risks of
pain, bleeding and other morbidity, as well as significant cost, the procedure is not practical for general patient screening. Several
non-invasive tools such as clinical risk scores and imaging techniques are increasingly used to assess potential NASH patients. Clinical
risk scores such as the NAFLD fibrosis score, Fibrosis-4 index, the Enhanced Liver Fibrosis score and vibration-controlled transient
elastography (“VCTE”), have been validated and are increasingly used. These tools have an excellent negative predictive value
and an acceptable positive predictive value for detection of advanced (≥ F3) fibrosis and are increasingly used in clinical settings.
Extensive efforts are also under way to develop non-invasive means to identify patients with NAS ≥ 4 or fibrosis ≥ F2 without a
liver biopsy. In draft guidance, the FDA encouraged sponsors to identify biochemical or noninvasive imaging biomarkers that, once characterized
and agreed by the FDA, could replace liver biopsies for patient selection and efficacy assessment in clinical trials.
30
We
expect that the validation and subsequent adoption of these new tools will result in an increase in the diagnosis and treatment rates
for NASH in the future.
Current
Status
We
have recently completed the LiFT Phase 2 clinical study in biopsy-confirmed non-cirrhotic NASH subjects. The LiFT clinical
study was a prospective, multi-center, randomized, double-blind, placebo-controlled multiple-arm study in biopsy-confirmed hypogonadal
and eugonadal male NASH subjects with grade F1-F3 fibrosis and a target NAFLD Activity Score ≥ 4 with a 36-week treatment period.
The LiFT clinical study enrolled 56 biopsy confirmed NASH male subjects. Subjects were randomized 1:1:1 to one of three arms (Treatment
A is a twice daily oral dose of 142 mg testosterone equivalent, Treatment B is a twice daily oral dose of 142 mg testosterone equivalent
formulated with 217 mg of d-alpha tocopherol equivalent, and the third arm is twice daily matching placebo).
The
primary endpoint of the LiFT clinical study was change in hepatic fat fraction via MRI-PDFF and exploratory liver fat/marker end
points post 12 weeks of treatment. Additionally, key secondary endpoints post 36 weeks of treatment included assessment of histological
change for NASH resolution and/or fibrosis improvement (biopsy) as well as liver fat data (MRI-PDFF). The LiFT clinical study
was not powered to assess statistical significance of any of the secondary endpoints. Other important endpoints included the following:
change in liver injury markers, anthropomorphic measurements, lipids, insulin resistance and inflammatory/fibrosis markers; as well as
patient reported outcomes.
Treatments
with LPCN 1144 post 12 weeks of treatment in the LiFT study resulted in robust liver fat reduction, assessed by MRI-PDFF, and
showed improvement of liver injury markers with no observed tolerability issues.
Liver
biopsies were performed at baseline (“BL”) and after 36 weeks of treatment (“EOS”). Prespecified biopsy analyses
included NASH Clinical Research Network (“CRN”) scoring as well as a continuous paired (“Paired Technique”) and
digital technique (“Digital Technique-Fibronest”). All biopsy analyses were performed on the same slides and the reads for
the three techniques were done independently. Analysis sets included the NASH Resolution Set (all subjects that have BL and EOS biopsy
with NASH at BL [NAS ≥4 with lobular inflammation score ≥ 1 and hepatocyte ballooning score ≥1 at BL] (n=37)), the Biopsy Set
(all subjects with baseline and EOS biopsies (n=44)), and the Safety Set (all randomized subjects (n=56)).
Both
LPCN 1144 treatment arms met with statistical significance the pre-specified accelerated approval regulatory endpoint of NASH resolution
with no worsening of fibrosis based on NASH CRN scoring. Additionally, both treatment arms showed substantial improvement of the observed
NASH activity in steatosis, inflammation, and ballooning.
31
Key
results from the LiFT clinical study are presented in the following tables and figures:
In
both treatment arms, substantial reductions in markers of liver injury compared to placebo were observed post four weeks of treatment
and were sustained through EOS. Using all available Safety Set data, ALT decreased up to a mean of 23.4 U/L at EOS from all group mean
baseline of 51.5 U/L and AST decreased up to a mean of 13.3 U/L at EOS from all group mean baseline of 31.9 U/L.
32
Positive
effects in appendicular lean mass and whole-body fat mass, an indicator of overall tissue quality, based on dual-energy X-ray absorptiometry
scans, were noted in both LPCN 1144 treatment arms.
Finding
on liver injury marker and positive effects on body composition can be seen in the following table:
During
the 36 weeks of treatment, LPCN 1144 was well tolerated with an overall safety profile comparable to placebo.
Additionally,
subjects were given the option to have access to LPCN 1144 through an open label extension (“OLE”) study. The extension study
enabled the collection of additional data on LPCN 1144 for up to a total of 72 weeks of therapy, as well as data for 36 weeks of therapy
for those subjects on placebo in the LiFT study. Key results from the OLE study are as follows:
●
LPCN
1144 was well tolerated over 72-week exposure with no observed safety signals;
●
Liver
injury markers were reduced and maintained with extended LPCN 1144 treatment; and
●
Observed
liver histology improvements support further development
In
November 2021, the FDA granted Fast Track Designation to LPCN 1144 as a treatment for non-cirrhotic NASH. The Fast Track program is designed
to accelerate the development and expedite the review of products, such as LPCN 1144, which are intended to treat serious diseases and
for which there is an unmet medical need.
We
had a written only response from FDA for a LPCN 1144 Type C meeting with the FDA in January 2022 to discuss the development path forward
with LPCN 1144. The FDA acknowledged that the NDA submission of LPCN 1144 would be via 505(b)2 regulatory pathway and agreed that no
additional non-clinical studies are needed to support an NDA submission. The FDA recommended to request an end-of-phase 2 (“EOP2”)
meeting. The FDA acknowledged that in the LiFT study subjects achieved improvements in key components associated with NASH histopathology
after 36-weeks of treatment with LPCN 1144 in adult males and agreed that the proposed multicomponent primary surrogate endpoint is acceptable
for seeking approval under the accelerated approval pathway. The FDA also recommended either conducting a separate dose–ranging
study prior to phase 3 or evaluating multiple doses in phase 3. The FDA agreed that the proposed primary multicomponent surrogate endpoint,
NASH resolution with no worsening of fibrosis, is acceptable for seeking approval under the accelerated approval pathway and the FDA
recommended a phase 3 trial with a study duration of 72 weeks. In July 2022, Lipocine held an End of Phase 2 meeting with FDA for LPCN 1144 in NASH. The FDA recommends Lipocine conduct a phase 2 dose
ranging study to identify the optimal dose prior to conducting a pivotal study. The FDA agreed to the proposed unique testosterone ester,
testosterone dodecanoate, for future clinical studies.
We
are exploring the possibility of partnering LPCN 1144 to a third party, although no partnering agreement has been entered into by the Company.
No assurance can be given that any license agreement will be completed, or, if an agreement is completed, that such an agreement would
be on terms favorable to us.
33
LPCN
1111: A Next-Generation Long-Acting Oral Product Candidate for TRT
LPCN
1111: is a next-generation, novel ester prodrug of testosterone comprised of testosterone tridecanoate (“TT”) which uses the proprietary
delivery technology to enhance solubility and improve systemic absorption. We completed a Phase 2b dose finding study in hypogonadal
men in the third quarter of 2016. The primary objectives of the Phase 2b clinical study were to determine the starting Phase 3 dose of
LPCN 1111 along with safety and tolerability of LPCN 1111 and its metabolites following oral administration of single and multiple doses
in hypogonadal men. Good dose-response relationship was observed over the tested dose range in the Phase 2b study. Additionally, the
target Phase 3 dose met primary and secondary end points. Overall, LPCN 1111 was well tolerated with no drug-related severe or serious
adverse events reported in the Phase 2b study.
In
February 2018 we had a meeting with the FDA to discuss these pre-clinical results and to discuss the Phase 3 clinical study and path
forward for LPCN 1111. Based on the results of the FDA meeting and additional pre-clinical studies conducted after the FDA meeting, we
have proposed a Phase 3 protocol for LPCN 1111 and have solicited FDA feedback. Based on initial FDA feedback, we expect the Phase 3
clinical trial design to follow the International Council for Harmonisation of Technical Requirements for Pharmaceuticals for Human Use
(“ICH”) guidelines and we expect the trial will include at least a three-month efficacy treatment period and a one-year safety
component for approximately 100 subjects. We are currently seeking further clarification from FDA with respect to the total subject LPCN
1111 exposure information needed for an NDA filing. We continue to refine the Phase 3 protocol and plan to request FDA approval of the
protocol once it is finalized. Additionally, the FDA previously requested that a food effect and a phlebotomy study be completed, and
that ambulatory blood pressure monitoring (“ABPM”) be included as part of the Phase 3 clinical study. We are currently transferring
the manufacturing of LPCN 1111 to a third-party contract manufacturer and scaling up the formulation after which we anticipate the next
steps in developing LPCN 1111 may be to conduct a food effect/phlebotomy study with LPCN 1111. Under the terms of the Antares License
Agreement, Antares has been granted an option to license LPCN 1111, exercisable on or before March 31, 2022, for further development
and, should LPCN 1111 receive FDA approval, commercialization. On April 1, 2022, the Company entered into the First Amendment to the
License Agreement (the “Amendment”), pursuant to which the License Agreement was amended to extend the deadline by which
Antares shall exercise its option to license LPCN 1111 to June 30, 2022. As consideration for the Company agreeing to enter into the
Amendment, Antares paid the Company a non-refundable cash fee of $500,000 in April 2022. On June 30, 2022, Antares’ option to license
a license for TLANDO XR expired and was not exercised.
We
are currently in the process of scaling up the manufacturing process and generation of supplies to enable conduct of pivotal studies
for registration. We are exploring the possibility of partnering LPCN 1111 to a third party, although no partnering agreement has been
entered into by the Company. No assurance can be given that any license agreement will be completed, or, if an agreement is completed,
that such an agreement would be on terms favorable to us.
LPCN
1107: An Oral Product Candidate for the Prevention of Preterm Birth
We
believe LPCN 1107 has the potential to become the first oral hydroxyprogesterone caproate (“HPC”) product indicated for the
reduction of risk of PTB (delivery less than 37 weeks) in women with singleton pregnancy who have a history of singleton spontaneous
PTB. Prevention of PTB is a significant unmet need as approximately 11.7% of all U.S. pregnancies result in PTB, a leading cause of neonatal
mortality and morbidity.
Current
Status
We
have completed a multi-dose PK dose selection study in pregnant women. The objective of the multi-dose PK selection study was to assess
HPC blood levels in order to identify the appropriate LPCN 1107 Phase 3 dose. The multi-dose PK dose selection study was an open-label,
four-period, four-treatment, randomized, single and multiple dose PK study in pregnant women with three dose levels of LPCN 1107 and
the IM HPC (Makena®). The study enrolled 12 healthy pregnant women (average age of 27 years) with a gestational age of approximately
16 to 19 weeks. Subjects received three dose levels of LPCN 1107 (400 mg BID, 600 mg BID, or 800 mg BID) in a randomized, crossover manner
during the first three treatment periods and then received five weekly injections of HPC during the fourth treatment period. During each
of the LPCN 1107 treatment periods, subjects received a single dose of LPCN 1107 on Day 1 followed by twice daily administration from
Day 2 to Day 8. Following completion of the three LPCN 1107 treatment periods and a washout period, all subjects received five weekly
injections of HPC. Results from this study demonstrated that average steady state HPC levels (Cavg0-24) were comparable or higher for
all three LPCN 1107 doses than for injectable HPC. Additionally, HPC levels as a function of daily dose were linear for the three LPCN
1107 doses. Also, unlike the injectable HPC, steady state exposure was achieved for all three LPCN 1107 doses within seven days.
34
A
traditional PK/PD based Phase 2 clinical study in the intended patient population is not expected to be required prior to entering into
Phase 3. Therefore, based on the results of our multi-dose PK study we had an End-of-Phase 2 meeting and subsequent guidance meetings
with the FDA to define a pivotal Phase 2b/3 development plan for LPCN 1107. However, these discussions may be updated based on recent
developments with Covis’ Makena® as described below. We have completed a food effect study to characterize the dosing regimen
for the pivotal study. We plan to submit a pivotal clinical study protocol to the FDA.
We
are exploring the possibility of partnering LPCN 1107 to a third party, although no partnering agreement has been entered into by the Company.
No assurance can be given that any license agreement will be completed, or, if an agreement is completed, that such an agreement would
be on terms favorable to us.
The
FDA has granted orphan drug designation to LPCN 1107 based on a major contribution to patient care. Orphan designation qualifies Lipocine
for various development incentives, including tax credits for qualified clinical testing, and a waiver of the prescription drug user
fee when we file our NDA.
Recent
Competition Update
On October 5, 2020, the FDA’s Center for Drug Evaluation and Research
(“CDER”) proposed that Makena be withdrawn from the market because the PROLONG trial failed to verify the
clinical benefit of Makena and concluded that the available evidence does not show Makena is effective for its approved use.
CDER issued AMAG Pharmaceuticals, the NDA holder at the time, a Notice of Opportunity for Hearing (“NOOH”) to withdraw approval of Makena, for
which AMAG Pharmaceuticals responded by requesting a hearing and providing detail on the company’s position, recognizing clinicians’
decade-long use of Makena’s treatment and the public health implications of withdrawing approval. The FDA Commissioner has recently
granted Covis a public hearing to be held October 17 through 19, 2022. During this time, Makena and the approved generics of Makena have
remained on the market pending a final decision about these products by the FDA.
Currently,
Makena and the approved generics of Makena are the only products approved for the prevention of recurrent preterm birth.
The
FDA also indicated that it intends to hold a meeting with experts in obstetrics, neonatal care, and clinical trial design to discuss
how to facilitate development of effective and safe therapies to treat preterm birth.
Oral
Neuroactive Steroids (“NAS”) Programs for CNS Disorders
Some
preferred endogenous or naturally occurring NAS present in central nervous system (“CNS”) act as positive allosteric modulators (“PAM”) of
the GABA A receptor, the major biological target of the inhibitory neurotransmitter γ-aminobutyric acid (“GABA A” ).
To improve oral delivery of these modulators, several synthetic NAS derivatives of endogenous GABA A receptor PAMs, have been
developed for therapeutic use in the past few decades.
We
believe through utilization of our proprietary technology we may have the ability to enable effective oral delivery of endogenous GABA A
receptor PAMs which historically had been challenging to deliver orally as they were deemed to be not orally bioavailable. We believe
these endogenous GABA A receptor PAMs provide opportunity as a differentiated NAS for treatment of various CNS disorders via
the preferred and convenient oral route. We have conducted Phase 1 PK studies for each of our two lead NAS candidates which have demonstrated
promising PK results, safety, and tolerability.
35
LPCN
1154: Product Candidate for PPD
We
are currently evaluating LPCN 1154 comprising an endogenous NAS for PPD. The FDA has cleared the LPCN 1154 investigational new drug (“IND”)
application to conduct a phase 2 study in PPD. In addition to completing an oral PK study, we completed a food effect study with LPCN
1154. In the second quarter of 2022, a type C meeting was held with the FDA to discuss PK data and the clinical development path of LPCN 1154,
our candidate for postpartum depression (“PPD”). Based on feedback from the meeting, the company plans to initiate a multi-dose
proof-of-concept study of LPCN 1154 in the second half of 2022.
PPD
PPD
(Postpartum depression), a type of major depressive disorder with onset either during pregnancy or within four weeks of delivery, refers
to depression persisting up to 12 months after childbirth. PPD can be clinically segmented by the severity of symptoms and presence of
a comorbidity, including epilepsy. Approximately 1 in 9 mothers suffers from PPD in the United States alone; this equates to approximately
500,000 women being affected by PPD annually.
Disease
Overview - PPD
●
PPD
is distinct from the “baby blues,” a condition that up to 70% of all new mother’s experience; “baby blues”
tend to be short-lived emotional conditions that do not interfere with daily activities.
●
Symptoms
of PPD include hallmarks of major depression, including, but not limited to, sadness, depressed mood, loss of interest, change in
appetite, insomnia, sleeping too much, fatigue, difficulty thinking/concentrating, excessive crying, fear of harming the baby/oneself,
and/or thoughts of death or suicide.
●
During
pregnancy, levels of endogenous NAS increase considerably along with levels of progesterone; however, they drop sharply postpartum.
It has been hypothesized that the rapid perinatal decrease in circulating levels of endogenous NASs may be involved in the development
of PPD. The first and only approved treatment option for PPD is an injectable containing endogenous NAS.
●
Depression
may persist long after child delivery. Additionally, approximately 40% of women relapse in subsequent pregnancies or on other occasions.
●
Psychiatric
comorbidities are common in patients with epilepsy. Patients with epilepsy are at high risk for major depressive disorders and PPD.
Reported PPD rates are higher among women with epilepsy than the general population.
Associated
Risk Factors
●
Genetic:
family history and/or previous experience of depression or other mood disorders
●
Physiological:
rapid changes in sex hormones, stress hormones, and thyroid hormone levels during and after delivery
●
Environmental:
stressful life events, changes in relationships at home and at work, and/or lack of familial support
Unmet
medical need
Approximately,
1 in 9 mothers suffer from PPD in the United States alone, which equates to approximately 500,000 women affected by PPD annually. We
believe there is considerable unmet need within women with PPD due to lack of convenient and fast-acting oral therapies. Selective Serotonin
Reuptake Inhibitors (“SSRIs”) have been the traditional first-line choice for women with severe PPD requiring weeks for onset
of efficacy; therefore, a need for a faster onset of action remains a significant unmet need in treating PPD, especially in women with
epilepsy risk wherein psychiatric comorbidity is common and PPD rates are higher than the general population.
Injectable
brexanolone (ZulressoTM, Sage Therapeutics) became the first FDA-approved treatment for postpartum depression. However, numerous factors
limit the utilization of injectable brexanolone such as method of administration, cost, and safety concerns. Administration of injectable
brexanolone requires a 60-hour continuous infusion in a supervised medical setting, a demanding ask for a mother with a newborn. Besides
associated privacy concerns and social stigma, hospitalization may also require separation of the mother and child for a few days, which
may be difficult to the already strained mother-infant bond and may present breast feeding challenges. Moreover, the pharmacotherapy
costs coupled with hospitalization/childcare costs limits its accessibility and affordability to women most in need of the therapy. Finally,
due to concerns about the safety of injectable ZulressoTM including excessive sedation or loss of consciousness, Zulresso has a Black
Box Warning in its label and is only available through a restricted distribution program (REMS), and sites need significant time to become
treatment ready.
We
believe LPCN 1154 targets the unmet need for a convenient, oral treatment with faster onset of action.
36
LPCN
2101: NAS for epilepsy
We
are currently evaluating an additional NAS candidate, LPCN 2101, for women with epilepsy (“WWE”). We have completed a pre-clinical
study for LPCN 2101 which demonstrated promising PK results, safety and tolerability. In July 2022 our IND was accepted by the FDA for
LPCN 2101 for adults with epilepsy and we plan to initiate a Phase 2 IND opening proof-of-concept study to evaluate the safety, tolerability,
and efficacy of LPCN 2101 in the second half of 2022. The Phase 2 study will be a photosensitive epilepsy (“PSE”) study with
the first patient expected to be dosed in the second half of 2022. The photosensitivity model enrolls patients who have an EEG-measurable
photoparoxysmal response (“PPR”) triggered by light stimulation. Reduction in photosensitivity can be quantified after a
single dose of a potential anti-seizure medication (“ASM”). Reportedly, positive results in the PSE model have proven to
be a reliable marker of antiseizure efficacy for most approved ASMs.
Disease
Overview - Epilepsy
Epilepsy
is defined by the 1) occurrence of at least two unprovoked seizures more than 24 hours apart, 2) occurrence of one unprovoked seizure
and a probability of further seizures occurring over the next 10 years, and/or 3) diagnosis of an epilepsy syndrome. Patients with epilepsy
are more likely to be comorbid with other conditions, including depression and anxiety.
Patients
with epilepsy have increased risk of mortality due to direct effects of seizures (e.g., status epilepticus, car accidents) and indirect
effects of seizures (e.g., suicide, cardiovascular effects.)
Epilepsy
is a disorder of the brain that causes seizures, affecting the physical, mental, and social well-being of persons, and is associated
with a 2 to 3 times greater mortality rate compared with the general population. About 60-65% of epilepsy is idiopathic and about 30%
of patients are refractory (i.e., epilepsy not well managed with currently available ASMs). Epilepsy
is the most common neurological disorder during pregnancy.
It
is estimated that approximately 900,000 CB age women suffer from active epilepsy in the U.S. Women of CB age with epilepsy face many
additional challenges due to hormonal influences on seizure activity and endocrine function throughout the different phases of their
reproductive cycles. Elevated estrogen or decreased progesterone levels can exacerbate seizure frequency. Often, these women experience
hormonal and endogenous NAS imbalances, coupled with fluctuations in the blood levels of ASMs that impact control of seizures, efficacy
of oral contraceptives, any coexisting anxiety and/or depression and any associated sleep impairment. Epileptic patients are 5-20 times
more likely to develop depression.
Clinical
segmentation can be categorized by epilepsy type, comorbidities and patient subgroups. Categorization of focal epilepsy, generalized
epilepsy, combined focal and generalized epilepsy, and unknown epilepsy can guide the choice of ASM. Special patient subgroups, including
WWE of CB age and elderly patients, require special care and management of epilepsy. Comorbidities such as depression and anxiety may
be co-treated with therapies that do not aggravate seizures and have no drug interaction with the ASM used for epilepsy. While lowest
effective dose and monotherapy are preferred, management of patients with epilepsy is focused on controlling seizures, avoiding adverse
events, and maintaining quality of life. Despite a wide range of ASMs available, about 30 % of all people with epilepsy still fail to
respond to treatment effectively. Women with epilepsy face specific challenges throughout their lifespan because of seizures, ASMs, and
hormonal fluctuations.
Women
with epilepsy were once counseled to avoid pregnancy, but epilepsy is no longer considered a contraindication to pregnancy. Caregivers
for WWE in the preconception phase either intending to start a family (planning pregnancy) or using contraception to prevent an unplanned
pregnancy face significant challenges to balance seizure control efficacy with the selection and dosage of ASMs and ASM-related risks
such as, among other risks, fetal-neonatal toxicity, contraception failure, and psychiatric side effects.
Several
ASMs are known to have teratogenic effects on the developing fetus (converging evidence from registry studies indicates that teratogenic
risks are highest with valproate, followed by carbamazepine and topiramate). Other commonly prescribed ASMs, including older generation
agents, such as phenobarbital and phenytoin, have been associated with higher risks as compared with lamotrigine, levetiracetam, clonazepam
and gabapentin (Vajda et al., 2014; Voinescu and Pennell, 2015). Moreover, risks associated with ASMs is considerable early in pregnancy;
therefore, it is necessary that WWE of CB age undergo counselling, monitoring, and adjustment to the most appropriate ASM prior to becoming
pregnant. It is preferable WWE of CB age discuss seizure control with their doctor for at least 6 months before conception and, if possible,
cease ASM therapy or use the lowest effective dose of a single anticonvulsant according to the type of epilepsy and the fetal toxicity
of the ASM. Anxiety, depression, lack of adherence to ASM, and/or contraception failure may be experienced by women who are worried about
unplanned pregnancy or are late in confirming pregnancy, planned or unplanned. ASMs can reduce the efficacy of oral contraceptives, compounding
this problem.
37
Complex,
multidirectional interactions between female hormones, seizures, and ASMs exist. Most hormones act as NAS and can thus modulate brain
excitability. Any changes in endogenous or exogenous hormone levels can affect the occurrence of seizures, either directly or via PK
interactions that modify the plasma levels of ASMs (Harden, 2008). The PK interactions between oral contraceptives and ASMs are bidirectional
(Johnston and Crawford, 2014). The efficacy of hormonal contraception may be diminished for women taking CYP-P450 enzyme inducing ASMs.
Epilepsy is not a medical condition in which contraceptives are contraindicated. Contraceptive failure, possibly related to ASMs, may
be responsible for up to one in four unplanned pregnancies in WWE (-12.5% of all WWE pregnancies), vs a rate of 1% in healthy women.
Unmet
need to treat WWE in CB age
It
is estimated that approximately 900,000 CB age women suffer from active epilepsy in the U.S. Women of CB age with epilepsy face many
additional challenges such as hormonal influences on seizure activity and endocrine function throughout the different phases of their
reproductive cycles, and approximately 30% of patients with epilepsy cannot be efficiently controlled with available ASMs making consideration
of newer pharmacological treatment development options important.
Managing
uncontrolled seizures in WWE of CB age is the primary aim during preconception, pregnancy, and postpartum phases. Therefore, uncompromised
ASM efficacy with acceptable variability and less or no drug-drug interactions achieved with lowest possible monotherapy dose to address
fetal toxicity concerns, remain highly unmet needs. Moreover, control of seizures including prevention of breakthrough seizures is critical
when planning for pregnancy and also during pregnancy, as it can also lead to undesired falls or auto-accidents and compromise freedom
to drive.
Select
ASMs have the potential to induce contraception failures, reproductive hormone imbalance, anxiety, and depression. There remains an unmet
need for an ASM without the aforementioned downsides, with no to low fetal-neonatal toxicity and without any breast-feeding concerns
as well as potential to treat associated comorbidities.
While
over 30 molecules have been approved for the treatment of epilepsy in the U.S., no epilepsy drug has been specifically approved for WWE
of CB age. We believe our endogenous NASs as GABA A PAMs, while targeting the goal of seizure control, also have the potential
for additional benefits in psychiatric disorders comorbidities (e.g., anxiety and/or depression), and sleep impairment. Moreover, these
oral endogenous NAS could potentially address some of the fetal toxicity concerns related to unplanned or planned pregnancy in WWE. (2)
(2)
Ref: S.Bangar et al. Functional Neurology 2016; 31(3): 127-134; Reimers et al. Seizure. 2015 May;28:66-70.
Financial
Operations Overview
Revenue
To
date, we have not generated any revenues from product sales and do not expect to generate revenue other than TLANDO royalties and
licensing fees until one of our product candidates receives approval from the FDA. Revenues to date have been generated
substantially from license fees, royalty and milestone payments and research support from our licensees. Since our inception through
June 30, 2022, we have generated $44.7 million in revenue under our various license and collaboration arrangements and from
government grants. Based on the terms of the Antares license agreement, we estimate that we will receive a payment of approximately
$235,000 for royalties based on estimated second quarter 2022 net sales of TLANDO. If received, receipt of this payment will reduce
our contract asset in the third quarter of 2022. We may never generate revenues from any of our clinical or pre-clinical development
programs other than TLANDO as we may never succeed in obtaining regulatory approval or commercializing any of these product
candidates.
Research
and Development Expenses
Research
and development expenses consist primarily of salaries, benefits, stock-based compensation and related personnel costs, fees paid to
external service providers such as contract research organizations and contract manufacturing organizations, contractual obligations
for clinical development, clinical sites, manufacturing and scale-up for clinical trials, formulation of clinical drug supplies, and
expenses associated with regulatory submissions. Research and development expenses also include an allocation of indirect costs, such
as those for facilities, office expense, travel, and depreciation of equipment based on the ratio of direct labor hours for research
and development personnel to total direct labor hours for all personnel. We expense research and development expenses as incurred. Since
our inception, we have spent approximately $133.3 million in research and development expenses through June 30, 2022.
38
We
expect to continue to incur significant costs as we develop our other product candidates, including the ongoing Phase 2 POC study in
male cirrhotic subjects with LPCN 1148 and our NAS projects, as well as the clinical development of other pipeline product candidates.
In
general, the cost of clinical trials may vary significantly over the life of a project as a result of uncertainties in clinical development,
including, among others:
●
the
number of sites included in the trials;
●
the
length of time required to enroll suitable subjects;
●
the
duration of subject follow-ups;
●
the
length of time required to collect, analyze and report trial results;
●
the
cost, timing and outcome of regulatory review; and
●
potential
changes by the FDA in clinical trial and NDA filing requirements for testosterone replacement therapies.
A
change of outcome for any of these variables with respect to the development of our product development candidates could mean a substantial
change in the costs and timing associated with these efforts, could require us to raise additional capital, and may require us to reduce
operations.
Given
the stage of clinical development and the significant risks and uncertainties inherent in the clinical development, manufacturing and
regulatory approval process, we are unable to estimate with any certainty the time or cost to complete the development of LPCN 1148,
LPCN 1144, LPCN 1111, LPCN 1107, LPCN 1154, LPCN 2101 and other product candidates. Clinical development timelines, the probability of
success and development costs can differ materially from expectations and results from our clinical trials may not be favorable. If we
are successful in progressing LPCN 1148, LPCN 1144, LPCN 1111, LPCN 1107, 1148, LPCN 1154, LPCN 2101 or other product candidates into
later stage development, we will require additional capital. The amount and timing of our future research and development expenses for
these product candidates will depend on the pre-clinical and clinical success of both our current development activities and potential
development of new product candidates, as well as ongoing assessments of the commercial potential of such activities.
Summary
of Research and Development Expense
We
are conducting on-going clinical and regulatory activities with most of our product candidates. Additionally, we incur costs for our
other research programs. The following table summarizes our research and development expenses:
Three Months Ended June 30,
Six Months Ended June 30,
2022
2021
2022
2021
External service provider costs:
LPCN 1148
$ 988,993
$ -
$ 1,420,163
$ -
LPCN 1154
823,599
94,642
1,077,847
102,073
LPCN 1111
32,342
-
184,671
-
LPCN 1144
156,967
554,042
241,516
1,317,272
LPCN 1107
82,364
54,381
124,525
55,381
TLANDO
(35,231 )
22,528
(35,875 )
109,251
Total external service provider costs
2,049,034
725,593
3,012,847
1,583,977
Internal personnel costs
629,649
514,705
1,324,370
1,084,972
Other research and development costs
219,329
224,389
448,748
376,279
Total research and development
$ 2,898,012
$ 1,464,687
$ 4,785,965
$ 3,045,228
39
We
expect research and development expenses to increase in the future as we complete on-going clinical studies, including the Phase 2 POC
study in male cirrhotic subjects with LPCN 1148 and our NAS studies, as we conduct future clinical studies, including when and if we
conduct Phase 2 clinical studies with our product candidates and Phase 3 clinical studies with LPCN 1144, LPCN 1111, and LPCN 1107. However,
if we are unable to raise additional capital, we may need to reduce research and development expenses in order to extend our ability
to continue as a going concern.
General
and Administrative Expenses
General
and administrative expenses consist primarily of salaries and related benefits, including stock-based compensation related to our executive,
finance, business development, and marketing analytics. Other general and administrative expenses include rent and utilities, travel
expenses, and professional fees for auditing, tax and legal services.
General
and administrative expenses also include expenses for the cost of preparing, filling and prosecuting patent applications and maintaining,
enforcing and defending intellectual property-related claims, including the patent interference and patent infringement lawsuits against
Clarus in 2021.
We
expect that general and administrative expenses will increase in the future as we mature as a public company, including legal and consulting
fees, accounting and audit fees, director fees, increased directors’ and officers’ insurance premiums, fees for investor
relations services and enhanced business and accounting systems, litigation costs, professional fees and other costs. However, if we
are unable to raise additional capital, we may need to reduce general and administrative expenses in order to extend our ability to continue
as a going concern.
Other
Expense (Income), Net
Other
expense (income), net consists primarily of interest income earned on our cash, cash equivalents and marketable investment securities
and interest expense incurred on our Loan and Security Agreement, gains on our warrant liability and losses (gains) on the our litigation
liability.
Results
of Operations
Comparison
of the Three Months Ended June 30, 2022 and 2021
The
following table summarizes our results of operations for the three months ended June 30, 2022 and 2021:
Three Months Ended June 30,
2022
2021
Variance
Revenue
$ 500,000
$ -
$ 500,000
Research and development expenses
2,898,012
1,464,687
1,433,325
General and administrative expenses
1,129,519
1,525,592
(396,073 )
Interest and investment income
(69,877 )
(17,344 )
52,533
Interest expense
7,568
57,428
(49,860 )
Gain on warrant liability
(583,445 )
(221,322 )
(362,123 )
Loss (gain) on litigation settlement
(250,000 )
4,000,000
(4,250,000 )
40
Revenue
The
increase in revenue during the three months ended June 30, 2022 related to a non-refundable cash fee of $500,000 received from Antares
for consideration of a 90 day extension to exercise its option to license LPCN 1111. On June 30, 2022, Antares’ option to license
TLANDO XR expired and was not exercised.
Research
and Development Expenses
The
increase in research and development expenses during the three months ended June 30, 2022 was primarily due to a $989,000 increase in
contract research organization expense related to the Phase 2 POC study in male cirrhotic subjects with LPCN 1148, a $729,000 increase
in costs related to LPCN 1154 clinical studies, a $115,000 increase in personnel expense from recruiting and salaries of additional
personnel, and a $60,000 increase in our LPCN 1111 and LPCN 1107 clinical studies. These increases were offset by a $397,000 decrease
in contract research organization expense and outside consulting costs related to the completion of our LPCN 1144 LiFT Phase 2
clinical study in NASH subjects, and a $58,000 decrease in costs associated with TLANDO, as well as a $5,000 decrease in other R&D
expenses.
General
and Administrative Expenses
The
decrease in general and administrative expenses during the three months ended June 30, 2022 was due to a $561,000 decrease in legal fees
primarily related to the 2021 settlement of the patent infringement lawsuit with Clarus Therapeutics Inc. and the ongoing class action
lawsuit defense and a $42,000 decrease in personnel costs due to employee turnover. These decreases were offset by a $82,000 increase
in professional fees related to the recruitment of additional directors to our Board, a $55,000 increase related to proxy solicitation
services and proxy distribution services, a $23,000 increase in corporate insurance expenses, a $17,000 increase in royalty expense related
to the net sales of TLANDO resulting from its commercial launch in June 2022, and a $30,000 increase in other general and administrative
expenses.
Interest
and Investment Income
The
increase in interest and investment income during the three months ended June 30, 2022 was mainly due to higher interest rates in 2022
compared to 2021.
Interest
Expense
The
decrease in interest expense during the three months ended June 30, 2022 was due to a decrease in interest expense on our Loan and Security
Agreement with SVB as a result of lower principal balances on the loan in 2022 as compared with 2021. The SVB loan matured and was paid
in full in June of 2022.
41
Gain on Warrant Liability
We
recorded a gain of $583,000 and a gain of $221,000, respectively, on warrant liability during the three months ended June 30, 2022 and
2021 related to the change in the fair value of outstanding common stock warrants issued in the November 2019 Offering. The gain in 2022
was attributable to a decrease in the value of warrants outstanding as of June 30, 2022 as compared to March 31, 2022 which was mainly
due to a decrease in our stock price. The gain in 2021 was attributable to a decrease in the value of warrants outstanding as of June
30, 2021 as compared to March 31, 2021 and was also mainly due to a decrease in our stock price. There were zero common stock warrants
from the November 2019 Offering exercised during the three months ended June 30, 2022 and 2021, respectively. The warrants are classified
as a liability due to a provision contained within the warrant agreement which allows the warrant holder the option to elect to receive
an amount of cash equal to the value of the warrants as determined in accordance with the Black-Scholes option pricing model with certain
defined assumptions upon a change of control. The warrant liability will continue to fluctuate in the future based on inputs to the Black-Scholes
model including our current stock price, the remaining life of the warrants, the volatility of our stock price, the risk-free interest
rate and the number of common stock warrants outstanding.
Litigation
Settlement
During
the three months ended June 30, 2022, we recorded a gain on the settlement of litigation liability of $250,000 as a result of the April
2022 Amendment to the Global Agreement with Clarus (“Amended Settlement Agreement”). The Amended Settlement Agreement settled
the payments due in July 2022 and 2023 for $1,250,000 rather than the $1,500,000 total future payments due under the terms of the Global
Agreement agreed to in 2021. Under the terms of the Global Agreement we entered into in 2021, we had agreed to pay Clarus $4.0 million
payable as follows: $2.5 million which was paid in July 2021, $1.0 million which was to be paid on July 13, 2022, and $500,000 to be
paid on July 13, 2023.
During
the three months ended June 30, 2021, we recorded a litigation settlement expense of $4.0 million resulting from the Global Agreement
with Clarus which resolved all outstanding claims between the two companies.
No
future royalties are owing from either party. On July 15, 2021, the Court dismissed with prejudice the Company’s claims and Clarus’
counterclaims.
Comparison
of the Six Months Ended June 30, 2022 and 2021
The
following table summarizes our results of operations for the six months ended June 30, 2022 and 2021:
Six months ended June 30,
2022
2021
Variance
Revenue
$ 500,000
$ -
$ 500,000
Research and development expenses
4,785,965
3,045,228
1,740,737
General and administrative expenses
2,373,205
3,059,544
(686,339 )
Interest and investment income
(111,453 )
(27,993 )
83,460
Interest expense
27,098
126,401
(99,303 )
Gain on warrant liability
(205,457 )
(26,257 )
(179,200 )
Loss (gain) on litigation settlement
(250,000 )
4,000,000
(4,250,000 )
Income tax expense
200
200
-
42
Revenue
The
increase in revenue during the six months ended June 30, 2022 related to a non-refundable cash fee of $500,000 received from Antares
for consideration of a 90 day extension to exercise its option to license LPCN 1111. On June 30, 2022, Antares’ option to license
a license for TLANDO XR expired and was not exercised.
Research
and Development Expenses
The
increase in research and development expenses during the six months ended June 30, 2022 was due to a $1.4 million increase in contract
research organization expense related to the Phase 2 POC study in male cirrhotic subjects with LPCN 1148, a $976,000 increase in costs
related to LPCN 1154 clinical studies, a $254,000 increase related to LPCN 1111 scale up activities and a food effect study in LPCN 1107,
a $239,000 increase in personnel expense resulting from the recruiting and hiring of additional personnel, and a $72,000 increase in
other research and development costs. These increases were offset by a $1.1 million decrease in contract research organization expense
and outside consulting costs related to the completion of our LPCN 1144 LiFT Phase 2 clinical study in NASH subjects, and a $145,000
decrease in costs associated with TLANDO.
General
and Administrative Expenses
The
decrease in general and administrative expenses during the six months ended June 30, 2022 was primarily due to a $1.0 million
decrease in legal fees related to the 2021 settlement of the patent infringement lawsuit with Clarus Therapeutics Inc. and the
ongoing class action lawsuit defense, a decrease of $63,000 in personnel costs due to employee turnover, and a $41,000 decrease
in other general and administrative expenses. These decreases were offset by a $140,000 increase in professional fees related to the
recruitment of additional directors to our Board, a $110,000 increase related to proxy solicitation services and proxy distribution
services, $97,000 increase in various other consulting fees, a $49,000 increase in corporate insurance expenses, and a $17,0000
increase in royalty expense related to the net sales of TLANDO resulting from its commercial launch in June 2022.
Interest
and Investment Income
The
increase in interest and investment income during the six months ended June 30, 2022 was due to higher interest rates in 2022 compared
to 2021, despite lower cash and marketable investment securities balances.
Interest
Expense
The
decrease in interest expense during the six months ended June 30, 2022 was due to a decrease in interest expense on our Loan and Security
Agreement with SVB, mainly as a result of lower principal balances 2022 as compared to 2021. The SVB loan matured and was paid in full
in June of 2022.
43
Gain on Warrant Liability
We
recorded a gain of $205,000 and a gain of $26,000, respectively, on warrant liability during the six months ended June 30, 2022 and 2021
related to the change in the fair value of outstanding common stock warrants issued in the November 2019 Offering. The gain in 2022 was
attributable to a decrease in the value of warrants outstanding as of June 30, 2022 as compared to December 31, 2021 due to a a decrease
in our stock price and the shorter term remaining on the outstanding warrants. The gain in 2021 was attributable to a decrease in the
value of warrants outstanding as of June 30, 2021 as compared to December 31, 2020 due to a small decrease in the number of warrants
outstanding, a decrease in our volatility and the shorter term remaining on the outstanding warrants. There were zero and 10,000 common
stock warrants from the November 2019 Offering exercised during the six months ended June 30, 2022 and 2021, respectively. The warrants
are classified as a liability due to a provision contained within the warrant agreement which allows the warrant holder the option to
elect to receive an amount of cash equal to the value of the warrants as determined in accordance with the Black-Scholes option pricing
model with certain defined assumptions upon a change of control. The warrant liability will continue to fluctuate in the future based
on inputs to the Black-Scholes model including our current stock price, the remaining life of the warrants, the volatility of our stock
price, the risk-free interest rate and the number of common stock warrants outstanding.
Litigation
Settlement
During
the six months ended June 30, 2022, we recorded a gain on the settlement of litigation liability of $250,000 as a result of the April
2022 Amendment to Global Agreement with Claurus (“Amended Settlement Agreement”). The Amended Settlement Agreement settled
the payments due in July 2022 and 2023 for $1,250,000 rather than the $1,500,000 total future payments due under the terms of the Global
Agreement agreed to in 2021. Under the terms of the Global Agreement we entered into in 2021, we had agreed to pay Clarus $4.0 million
payable as follows: $2.5 million which was paid in July 2021, $1.0 million which was to be paid on July 13, 2022 and $500,000 to be paid
on July 13, 2023.
During
the six months ended June 30, 2021, we recorded a litigation settlement expense of $4.0 million resulting from the Global Agreement with
Clarus which resolved all outstanding claims between the two companies.
No
future royalties are owing from either party. On July 15, 2021, the Court dismissed with prejudice the Company’s claims and Clarus’
counterclaims.
Liquidity
and Capital Resources
Since
our inception, our operations have been primarily financed through sales of our equity securities, debt and payments received under our
license and collaboration arrangements. We have devoted our resources to funding research and development programs, including discovery
research, pre-clinical and clinical development activities. We have incurred operating losses in most years since our inception and we
expect to continue to incur operating losses into the foreseeable future as we advance the clinical development of LPCN 1144, LPCN 1111,
LPCN 1148, LPCN 1107, LPCN 1154 and LPCN 2101, and any other product candidate, including continued research efforts.
As
of June 30, 2022, we had $37.4 million of unrestricted cash, cash equivalents and marketable investment securities compared to $46.6
million at December 31, 2021.
On
January 28, 2021, we completed a public offering of securities registered under an effective registration statement filed pursuant to
the Securities Act of 1933, as amended (“January 2021 Offering”). The gross proceeds from the January 2021 Offering were
approximately $28.7 million, before deducting underwriter fees and other offering expenses of $1.9 million. In the January 2021 Offering,
we sold 16,428,571 shares of our common stock.
On
January 5, 2018, we entered into the Loan and Security Agreement with SVB pursuant to which SVB agreed to lend us $10.0 million. The
principal borrowed under the Loan and Security Agreement bore interest at a rate equal to the Prime Rate, as reported in money rates
section of The Wall Street Journal or any successor publication representing the rate of interest per annum then in effect, plus one
percent per annum, which interest was payable monthly. Additionally on April 1, 2020, we entered into a Deferral Agreement with SVB.
Under the Deferral Agreement, principal repayments were deferred by six months and we were only required to make monthly interest payments
during the deferral period. The Loan matured and was paid in full on June 1, 2022. Additionally, we made a final payment at maturity
equal to $650,000 (the “Final Payment Charge”) at the time the loan matured. The expense of the final payment charge had
been recognized over the term of the facility using the effective interest method.
44
On
March 6, 2017, we entered into the Sales Agreement with Cantor pursuant to which we may issue and sell, from time to time, shares of
our common stock having an aggregate offering price of up to the amount we have registered on an effective registration statement pursuant
to which the offering is being made. We currently have registered up to $50.0 million for sale under the Sales Agreement, pursuant to
our Registration Statement on Form S-3 (File No. 333-250072), through Cantor as our sales agent. Cantor may sell our common stock by
any method permitted by law deemed to be an “at the market offering” as defined in Rule 415(a)(4) of the Securities Act,
including sales made directly on or through the NASDAQ Capital Market or any other existing trade market for our common stock, in negotiated
transactions at market prices prevailing at the time of sale or at prices related to prevailing market prices, or any other method permitted
by law. Cantor uses its commercially reasonable efforts consistent with its normal trading and sales practices and applicable law and
regulations to sell these shares. We pay Cantor 3.0% of the aggregate gross proceeds from each sale of shares under the Sales Agreement.
We have also provided Cantor with customary indemnification rights.
The
shares of our common stock sold under the Sales Agreement are sold and issued pursuant to our Registration Statement on Form S-3 (File
No. 333-250072) (the “Form S-3”), which was previously declared effective by the Securities and Exchange Commission, and
the related prospectus and one or more prospectus supplements.
We
are not obligated to make any sales of our common stock under the 2020 Sales Agreement. The offering of our common stock pursuant to
the 2020 Sales Agreement will terminate upon the termination of the 2020 Sales Agreement as permitted therein. We and Cantor may each
terminate the 2020 Sales Agreement at any time upon ten days’ prior notice.
During
the three and six months ended June 30, 2022, we did not sell any shares of our common stock pursuant to our current Registration
Statement on Form S-3 (File No. 333-250072). During the six months ended June 30, 2021, we sold 1,811,238 shares of our common stock
resulting in net proceeds of approximately $3.4 million under the Sales Agreement which is net of $112,000 in expenses consisting of
commissions paid to Cantor in connection with these sales and other offering and accounting costs. As of June 30, 2022, we had $41.2
million available for sale under the Sales Agreement.
We
believe that our existing capital resources, together with interest thereon, will be sufficient to meet our projected operating requirements
through at least June 30, 2023 which includes an on-going clinical study for LPCN 1148, future clinical studies for LPCN 1154 and LPCN
2101, research and development activities and compliance with regulatory requirements. We have based this estimate on assumptions that
may prove to be wrong, and we could utilize our available capital resources sooner than we currently expect if additional activities
are performed by us including new clinical studies for LPCN 1144, LPCN 1111, LPCN 1107, and NAS including LPCN 1154 and LPCN 2101. While
we believe we have sufficient liquidity and capital resources to fund our projected operating requirements through at least June 30,
2023, we will need to raise additional capital at some point through the equity or debt markets or through out-licensing activities,
either before or after June 30, 2023, to support our operations. If we are unsuccessful in raising additional capital, our ability to
continue as a going concern will be limited. Further, our operating plan may change, and we may need additional funds to meet operational
needs and capital requirements for product development, regulatory compliance and clinical trial activities sooner than planned. In addition,
our capital resources may be consumed more rapidly if we pursue additional clinical studies for LPCN 1144, LPCN 1111, LPCN 1107, and
NAS including LPCN 1154 and LPCN 2101. Conversely, our capital resources could last longer if we reduce expenses, reduce the number of
activities currently contemplated under our operating plan or if we terminate, modify or suspend on-going clinical studies. We can raise
capital pursuant to the Sales Agreement when not restricted due to terms of previous financings but may choose not to issue common stock
if our market price is too low to justify such sales in our discretion. There are numerous risks and uncertainties associated with the
development and, subject to approval by the FDA, commercialization of our product candidates. There are numerous risks and uncertainties
impacting our ability to enter into collaborations with third parties to participate in the development and potential commercialization
of our product candidates. We are unable to precisely estimate the amounts of increased capital outlays and operating expenditures associated
with our anticipated or unanticipated clinical studies and ongoing development and pre-commercialization efforts. All of these factors
affect our need for additional capital resources. To fund future operations, we will need to ultimately raise additional capital and
our requirements will depend on many factors, including the following:
●
the
scope, rate of progress, results and cost of our clinical studies, pre-clinical testing and other related activities for all of our
product candidates, including LPCN 1148, LPCN 1111, LPCN 1144, LPCN 1107 and neuroactive steroids including LPCN 1154 and LPCN 2101;
●
the
cost of manufacturing clinical supplies, and establishing commercial supplies, of our product candidates and any products that we
may develop;
●
the
cost and timing of establishing sales, marketing and distribution capabilities, if any;
45
●
the
terms and timing of any collaborative, licensing, settlement and other arrangements that we may establish;
●
the
number and characteristics of product candidates that we pursue;
●
the
cost, timing and outcomes of regulatory approvals;
●
the
timing, receipt and amount of sales, profit sharing or royalties, if any, from our potential products;
●
the
cost of preparing, filing, prosecuting, defending and enforcing any patent claims and other intellectual property rights;
●
the
extent to which we acquire or invest in businesses, products or technologies, although we currently have no commitments or agreements
relating to any of these types of transactions; and
●
the
extent to which we grow significantly in the number of employees or the scope of our operations.
Funding
may not be available to us on favorable terms, or at all. Also, market conditions may prevent us from accessing the debt and equity capital
markets, including sales of our common stock through the Sales Agreement. If we are unable to obtain adequate financing when needed,
we may have to delay, reduce the scope of or suspend one or more of our clinical studies, research and development programs or, if any
of our product candidates receive approval from the FDA, commercialization efforts. We may seek to raise any necessary additional capital
through a combination of public or private equity offerings, including the Sales Agreement, debt financings, collaborations, strategic
alliances, licensing arrangements and other marketing and distribution arrangements. These arrangements may not be available to us or
available on terms favorable to us. To the extent that we raise additional capital through marketing and distribution arrangements, other
collaborations, strategic alliances or licensing arrangements with third parties, we may have to relinquish valuable rights to our product
candidates, future revenue streams, research programs or product candidates or grant licenses on terms that may not be favorable to us.
If we do raise additional capital through public or private equity offerings, the ownership interest of our existing stockholders will
be diluted, and the terms of these securities may include liquidation or other preferences, warrants or other terms that adversely affect
our stockholders’ rights or further complicate raising additional capital in the future. If we raise additional capital through
debt financing, we may be subject to covenants limiting or restricting our ability to take specific actions, such as incurring additional
debt, making capital expenditures or declaring dividends. If we are unable, for any reason, to raise needed capital, we will have to
reduce costs, delay research and development programs, liquidate assets, dispose of rights, commercialize products or product candidates
earlier than planned or on less favorable terms than desired or reduce or cease operations.
Sources
and Uses of Cash
The
following table provides a summary of our cash flows for the six months ended June 30, 2022 and 2021:
Six Months Ended June 30,
2022
2021
Cash used in operating activities
$ (6,931,731 )
$ (6,425,056 )
Cash provided by (used in) investing activities
11,083,460
(35,426,211 )
Cash provided from (used in) financing activities
(2,121,088 )
28,601,598
Net
Cash Used In Operating Activities
During
the six months ended June 30, 2022 and 2021, net cash used in operating activities was $6.9 million and $6.4 million, respectively.
Net
cash used in operating activities during the six months June 30, 2022 and 2021 was primarily attributable to cash outlays to support
ongoing operations, including research and development expenses and general and administrative expenses. During 2022, we were performing
activities related to our Phase 2 POC study in male cirrhotic subjects with LPCN 1148, PK and food effect studies with LPCN 1154 and
LPCN 1107 and manufacturing scale up with LPCN 1111. During 2021, we were performing activities related to the LPCN 1144 LiFT
Phase 2 paired biopsy clinical study.
Net
Cash Provided By (Used In) Investing Activities
During
the six months ended June 30, 2022, net cash provided by investing activities was $11.1 million and during the six months ended
June 30, 2021, net cash used in investing activities was $35.4 million.
46
Net cash provided by investing activities during the six months ended June
30, 2022 was primarily the result of the maturity of of marketable investment securities, net. Net cash used in investing activities during
the six months ended June 30, 2021 was due to the purchase of marketable securities. There were $37,000 in capital expenditures during
the six months ended June 30, 2022 and no capital expenditures for the six months ended June 30, 2021.
Net
Cash Provided From (Used in) Financing Activities
During
the six months ended June 30, 2022, net cash used in financing activities was $2.1 million and during the six months ended June 30,
2021 net cash provided from financing activities was $28.6 million.
Net
cash used in financing activities during the six months ended June 30, 2022 was mainly due to loan repayments of $1.7 million and payment
of the Final Payment Charge of $650,000 related to the SVB Loan and Security Agreement, offset by net proceeds from stock option exercise
of $206,000.
Net
cash provided from financing activities during the six months ended June 30, 2021 was attributable to the net proceeds from the sale
of 16,428,571 shares of common stock pursuant to January 2021 Offering resulting in net proceeds of $26.8 million and $3.4 million in
proceeds from the sale of 1,811,238 shares of common stock pursuant to the ATM, offset by $1.7 million in debt principal repayments under
the SVB Loan and Security Agreement.
Contractual
Commitments and Contingencies
Long-Term
Debt Obligations and Interest on Debt
On
January 5, 2018, we entered into a Loan and Security Agreement with SVB pursuant to which SVB agreed to lend us $10.0 million. The principal
borrowed under the Loan and Security Agreement bore interest at a rate equal to the Prime Rate plus one percent per annum, which interest
was payable monthly. The loan matured on June 1, 2022 and the outstanding principal, interest and Final Payment Charge were paid in full.
Purchase
Obligations
We
enter into contracts and issue purchase orders in the normal course of business with clinical research organizations for clinical trials
and clinical and commercial supply manufacturing and with vendors for pre-clinical research studies, research supplies and other services
and products for operating purposes. These contracts generally provide for termination on notice and are cancellable obligations.
Operating
Leases
In
August 2004, we entered into an agreement to lease our facility in Salt Lake City, Utah consisting of office and laboratory space which
serves as our corporate headquarters. On January 24, 2022, we modified and extended the lease through February 28, 2023.
Critical
Accounting Policies and Significant Judgments and Estimates
Our
management’s discussion and analysis of our financial condition and results of operations is based on our financial statements
which we have prepared in accordance with U.S. generally accepted accounting principles. In preparing our financial statements, we are
required to make estimates and assumptions that affect the reported amounts of assets and liabilities, the disclosure of contingent assets
and liabilities at the date of the financial statements and the reported amounts of revenues and expenses during the reporting periods.
Our estimates are based on our historical experience and on various other factors that we believe are reasonable under the circumstances,
the results of which form the basis for making judgments about the carrying value of assets and liabilities that are not readily apparent
from other sources. Actual results may differ from these estimates under different assumptions or conditions. There have been no significant
and material changes in our critical accounting policies during the six months ended June 30, 2022, as compared to those disclosed in
“Management’s Discussion and Analysis of Financial Condition and Results of Operations-Critical Accounting Policies and Significant
Judgments and Estimates” in our Form 10-K filed March 9, 2022.
New
Accounting Standards
Refer
to Note 12, in “Notes to Unaudited Condensed Consolidated Financial Statements” for a discussion of accounting standards
not yet adopted.
47
Text extracted from the filing as submitted to EDGAR. Formatting, tables and exhibits are simplified for reading; the original document is authoritative for anything you rely on.