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Dec. 23, 2020, 4:34 p.m. EST


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Disclosures Regarding Forward-Looking Statements

This report includes "forward-looking statements" within the meaning of Section 21E of the Exchange Act. Those statements include statements regarding the intent, belief or current expectations of the Company and its subsidiaries and our management team. Any such forward-looking statements are not guarantees of future performance and involve risks and uncertainties, and actual results may differ materially from those projected in the forward-looking statements. These risks and uncertainties include but are not limited to those risks and uncertainties set forth in Item 1A of this Form 10-K. In light of the significant risks and uncertainties inherent in the forward-looking statements included in this Form 10-K, the inclusion of such statements should not be regarded as a representation by us or any other person that our objectives and plans will be achieved. Further, these forward-looking statements reflect our view only as of the date of this report. Except as required by law, we undertake no obligations to update any forward-looking statements and we disclaim any intent to update forward-looking statements after the date of this report to reflect subsequent developments. Accordingly, you should also carefully consider the factors set forth in other reports or documents that we file from time to time with the SEC.


On July 12, 2019, Ohr completed the Merger. At the closing of the Merger, each outstanding share of Legacy NeuBase's capital stock was converted into the right to receive 1.019055643 shares of our common stock. Shares of our common stock commenced trading on the Nasdaq Capital Market under the ticker symbol "NBSE" as of market open on July 15, 2019. Our previous ticker symbol was "OHRP". As a result of the Merger, our going-forward operations will be primarily those of Legacy NeuBase. Accordingly, the results of operations reported for the fiscal year ended September 30, 2019, in this Management's Discussion and Analysis of Financial Condition and Results of Operations are not indicative of the results of operations expected for future years due to the transition of our historic business operations to primarily those of Legacy NeuBase.


NeuBase Therapeutics, Inc. (the "Company", "we", "us" and "our") is a biotechnology company accelerating the genetic revolution using a new class of synthetic medicines. Our modular peptide-nucleic acid antisense oligo ("PATrOL(TM)") platform which outputs "anti-gene" candidate therapies is designed to combine the specificity of genetic sequence-based target recognition with a modularity that enables use of various in vivo delivery technologies to enable broad and also selective tissue distribution capabilities. Given that every human disease may have a genetic component, we believe that our differentiated platform technology has the potential for broad impact by increasing, decreasing or changing gene function at either the DNA or RNA levels to resolve the progression to disease, as appropriate in a particular indication. We plan to use our platform to address diseases driven by a genetic abnormality and we are initially focused on Huntington's disease ("HD") and myotonic dystrophy type 1 ("DM1").

Mutated proteins resulting from errors in deoxyribonucleic acid ("DNA") sequences cause rare genetic diseases and cancer. DNA in each cell of the body is transcribed into pre-messenger ribonucleic acid ("pre-mRNA"), which is then processed (spliced) into mRNA, which is exported into the cytoplasm of the cell and translated into a protein. This is termed the "central dogma" of biology. Therefore, when errors in a DNA sequence occur, they are often propagated into RNAs and can produce a damaging protein.

We are developing "anti-gene" therapies. Anti-genes are similar, but distinct, from antisense oligonucleotides (ASOs). ASOs are short single strands of nucleic acids (traditionally thought of as single-stranded RNA molecules) which bind to defective RNA targets in cells and inhibit their ability to form defective proteins. We believe we are a leader in the discovery and development of this new class of anti-gene drugs derived from peptide-nucleic acids ("PNAs"). The key differentiator between ASOs and anti-genes is that the scaffold is not derived from a natural sugar-phosphate nucleic acid backbone, rather is a synthetic polyamide which is charge-neutral (and thus high affinity to allow invasion of double-stranded targets), semi-rigid, and apparently non-biodegradable and immunologically inert. These features provide potential advantages over ASOs and other genetic therapies for modulating disease-causing genes including increased unique target opportunities, improved target specificity and a reduction in both sequence-dependent and independent toxicities. In addition, as these anti-genes are manufactured via standard peptide synthesis methods, they efficiently leverage the advancements in the synthetic peptide industry to enable modulating pharmacophore delivery, pharmacokinetics, sub-cellular placement and endosomal escape.

In addition to the scaffold, we also have a kit of natural nucleobases, chemically modified nucleobases which add further precision to a nucleic acid target of interest, and proprietary bi-specific nucleobases which can be added to the scaffold to allow precise target engagement. These bi-specific nucleobases, in particular, can be used in any combination to more specifically access double stranded DNA targets and RNA targets comprised of secondary structures such as hairpins (double stranded RNA targets which are folded upon themselves). This allows us to potentially access regions of the target transcript which may be unique in secondary structure to allow enhanced selectivity for the target (mutant) RNA as compared to the normal RNA. Enhanced selectivity for mutant RNAs as compared to normal RNAs is critical as normal RNAs are likely required for effective functioning of the cell. These bi-specific nucleotides can also target genomic loci and microRNAs in their double-stranded form.

A component of the modular platform is the ability to add delivery technology to the pharmacophores so as to reach a desired cell or tissue upon in vivo administration. There is flexibility to append various delivery technologies to the pharmacophore to allow either broad tissue distribution or narrow cell and/or tissue targeting if so desired based on targets. One such technology is a chemical moiety can be used to decorate the scaffold directly and allows the anti-genes to penetrate cell membranes and into subcellular compartments where they act as well as to distribute throughout the body when administered systemically.

In addition to the scaffold and modified nucleobases, the platform toolkit also includes linker technology which, when added to both ends of the PNAs, allow cooperative binding between individual drug molecules once they are engaged with the target RNA to form longer and more tightly bound drugs.

This toolkit of components forms the PATrOL(TM) platform and allows us to manufacture gene and transcript-specific anti-genes.

We are currently focused on therapeutic areas in which we believe our drugs will provide the greatest benefit with a significant market opportunity. We intend to utilize our technology to build out a pipeline of custom designed therapeutics for additional high-value disease targets. We are developing several preclinical programs using our PATrOL(TM) platform, including the NT0100 program, targeted at Huntington's disease ("HD"), a repeat expansion disorder, and the NT0200 program, targeted at myotonic dystrophy, type 1 ("DM1"). Preclinical studies are being conducted to evaluate the PATrOL(TM) platform technology and program candidates in the areas of pharmacokinetics, pharmacodynamics and tolerability, and we reported results from certain of those studies in the first calendar quarter of 2020 and have extended upon certain of those studies in the fourth calendar quarter of 2020 which illustrated that our anti-gene technology can be administered to human patient-derived cell lines and systemically (via intravenous (IV) administration) into animals with DM1 (a genetically modified model accepted as the most representative of the human disease) and can resolve the causal genetic defect. We expect to present additional results from ongoing preclinical studies evaluating the PATrOLTM platform and pipeline indications in the first half of calendar 2021, begin IND enabling studies in one or more of our programs in calendar year 2021 and begin a clinical trial in one or more of our programs in calendar 2022. See below for additional detailed results from certain of our preclinical studies. In addition, the emerging pipeline of other assets that target primary and secondary RNA structure and genomic DNA allows a unique market advantage across a variety of rare diseases and oncology targets.

Overall, using our PATrOL(TM) platform, we believe we can create anti-gene therapies that have distinct advantages over other chemical entities currently in the market or in development for genetic medicine applications to modulate mutant genes and resolve a clinical trait or disorder. These advantages may differ by indication and can include, among others:

� increased unique target opportunities, improved target specificity and a reduction in both sequence-dependent and independent toxicities by virtue of a synthetic polyamide scaffold which is charge-neutral (and thus high affinity to allow invasion of double-stranded targets) and semi-rigid which imparts precision to target engagement, and are apparently immunologically inert to not aggregate via charge-based interaction in vivo;

� potentially long durability by nature of the non-biodegradable polyamide scaffold;

� our anti-genes are manufactured via standard peptide synthesis methods and thus they efficiently leverage advances in the synthetic peptide industry to enable facile addition of known moieties enabling modulating pharmacophore delivery, pharmacokinetics, sub-cellular placement and endosomal escape; and

� our anti-genes can uniquely target double stranded structures in DNA and RNA, which allow unique target opportunities that standard ASOs cannot access.

With these unique component parts and their advantages, our PATrOL(TM) platform-enabled anti-gene therapies can potentially address a multitude of rare genetic diseases and cancer, among other indications.

We employ a rational approach to selecting disease targets, considering many scientific, technical, business and indication-specific factors before choosing each indication. We intend to build a diverse portfolio of therapies custom-designed to treat a variety of health conditions, with an initial emphasis on rare genetic diseases and cancers. A key component of this strategy is continuing to improve the scientific understanding and optimization of our platform technology and programs, including how various components of our platform technology perform, and our drug candidates impact the biological processes of the target diseases, so that we can utilize this information to reduce risk in our future programs and indications. In addition, with our expertise in discovering and characterizing novel anti-gene drugs, we believe that our scientists can optimize the properties of our PATrOL(TM)-enabled drug candidates for use with particular targets that we determine to be of high value.

The depth of our knowledge and expertise with PNAs, bifacial and engineered nucleotides, genetics and genomics and therapeutic development of first-in-class modalities provides potential flexibility to determine the optimal development and commercialization strategy to maximize the near and longer-term value of our drug candidates.

We have distinct partnering strategies that we plan to employ based on the specific drug candidate, therapeutic area expertise and resources potential partners may bring to a collaboration. For some drug candidates, we may choose to develop and, if approved, commercialize them ourselves or through our affiliates. For other drug candidates, we may form single or multi asset partnerships leveraging our partners' global expertise and resources needed to support large commercial opportunities.

Globally, there are thousands of genetic diseases, most of which lack any therapeutic options. In addition, rare genetic diseases are often particularly severe, debilitating or fatal. Traditionally, therapeutic development for each rare genetic disorder has been approached with a unique strategy, which is inefficient, as there are thousands of diseases that need treatment solutions. The collective population of people with rare diseases stands to benefit profoundly from the emergence of a scalable and modular treatment development platform that allows for a more efficient discovery of drug product candidates to address these conditions cohesively.

Mutated proteins resulting from errors in deoxyribonucleic acid ("DNA") sequences cause many rare genetic diseases and cancer. DNA in each cell of the body is transcribed into pre-RNA, which is then processed (spliced) into mRNA which is exported into the cytoplasm of the cell and translated into protein. This is termed the "central dogma" of biology. Therefore, when errors in a DNA sequence occur, they are propagated to RNAs and can become a damaging protein.

Conceptually, we have learned that ASOs can inactivate target RNAs before they can produce harmful proteins by binding them in a sequence-specific manner, which can delay disease progression or even eliminate genetic disease symptoms. ASOs designed by others to target known disease-related mutant RNA sequences have been shown to be able to degrade these transcripts and have a positive clinical impact. Similarly, applications in modifying splicing of pre-RNA in the nucleus of the cell have been developed by others to exclude damaging exons from the final mRNA product and have been approved by the Food and Drug Administration ("FDA"). We plan to extend upon these conceptual breakthroughs by utilizing our first-in-class technology which we believe has significant benefits in certain application areas to better resolve a clinical disorder with well tolerated anti-gene therapies.

We believe the breadth of the PATrOL(TM) platform gives us the ability to potentially address a multitude of inherited genetic diseases. The technology may also allow us to target and inactivate gain-of-function and change-of-function mutations, and address targets in recessive disease and haploinsufficiencies by altering splicing to remove damaging exons/mutations or increasing expression of wild-type alleles by various means.

Gamma-modified scaffolds, an optimized version of which we utilize, have demonstrated preclinical in vivo efficacy in several applications which we believe can be translated across many targets and into humans. For example, in oncology such scaffolds have reduced expression of an activated oncogene (the epidermal growth factor receptor of the EGFR gene) and have modified gene regulation by targeting microRNAs to slow tumor growth. Such scaffolds have also demonstrated in vivo engagement with the double-stranded genome in studies done by others to perform in vivosingle-base genome editing.

Announcement of Positive Preclinical Data

On March 31, 2020, we announced positive preclinical data from our pharmacokinetics studies in non-human primates ("NHPs") and in vitro pharmacodynamics data in patient-derived cell lines. Our pharmacokinetics studies in NHPs demonstrated, among other things:

� rapid uptake of our PATrOL(TM)-enabled compound out of the body's circulation after systemic intravenous administration, with a half-life in circulation of approximately 1.5 hours;

� penetration by our PATrOL(TM)-enabled compound in every organ system studied, including the central nervous system and skeletal muscle; and

� retention of therapeutically relevant doses for greater than one week after single-dose injection.

Our pharmacodynamics studies in patient-derived cell lines demonstrated, among other things:

� activity in engaging target disease-causing transcripts and knocking-down resultant malfunctioning mutant HTT protein levels preferentially over normal HTT protein knock-down; and

� dose-limiting toxicities were not observed relative to a control either at or above the doses demonstrating activity in human cells in vitro.

In addition, PATrOL(TM) enabled compounds were generally well-tolerated in vivo after systemic administration, both after single-dose administration in NHPs and multi-dose administration in mice for over a month.

Product Pipeline

NT0100 Program - PATrOL(TM) Enabled Anti-Gene for Huntington's Disease

HD is a devastating rare neurodegenerative disorder. After onset, symptoms such as uncontrolled movements, cognitive impairments and emotional disturbances worsen over time. HD is caused by toxic aggregation of mutant huntingtin protein, leading to progressive neuron loss in the striatum and cortex of the brain. The wild-type huntingtin gene (HTT) has a region in which a three-base DNA sequence, CAG, is repeated many times. When the DNA sequence CAG is repeated 26 or fewer times in this region, the resulting protein behaves normally. While the wild-type function of HTT protein is largely uncharacterized, it is known to be essential for normal brain development. When the DNA sequence CAG is repeated 40 times or more in this region, the resulting protein becomes toxic and causes HD. Every person has two copies, or alleles, of the HTT gene. Only one of the alleles (the "mutant" allele) needs to bear at least 40 CAG repeats for HD to occur. HD is one of many known repeat expansion disorders, which are a set of genetic disorders caused by a mutation that leads to a repeat of nucleotides exceeding the normal threshold. Current therapies for patients with HD can only manage individual symptoms.

There is no approved therapy that has been shown to delay or halt disease progression. There are approximately 30,000 symptomatic patients in the U.S. and more than 200,000 at-risk of inheriting the disease globally.

One especially important advantage of the PATrOL(TM) platform that makes it promising for the treatment of repeat expansion disorders like HD is the ability of our small anti-genes to potentially target the RNA hairpin. As the number of repeats increases, the PATrOL(TM) anti-genes bind more tightly to each other and the mutant RNA. This allows our therapies to potentially inactivate mutant HTT mRNA before it can be translated into harmful protein via selective binding to the expanded CAG repeats while leaving the normal HTT mRNA largely unbound to drug and producing functional protein. Achieving mutant allele selectivity would be a key advantage for any RNA-based approach aiming to treat HD. In March of 2020 we illustrated the ability of our anti-gene technology to enrich for translational inhibition and resultant mutant protein in human patient-derived cell lines versus wild-type HTT alleles. We illustrated that our anti-genes can inhibit ribosomal elongation via high-affinity binding. The PATrOL(TM)-enabled NT0100 program is currently in preclinical development for the treatment of HD.

NT0200 Program- PATrOL(TM) Enabled Anti-Gene for Myotonic Dystrophy Type 1

Our pipeline also contains a second potentially transformative medicine, which we believe has significant potential for DM1, a severe and rare trinucleotide repeat disease. DM1 is a multisystem disorder that primarily affects skeletal, cardiac and smooth muscle, as well as the brain. DM1 is caused by expansion of a CUG trinucleotide repeat in the 3' untranslated region (UTR), a noncoding region of the myotonic dystrophy protein kinase gene (DMPK) transcript, which captures and sequesters protein that have critical functions in the nucleus related to appropriate splicing of hundreds of transcripts. These sequestered proteins cannot then fulfill their normal functions. In addition, it has been documented that sequestration of the mutant transcripts in the nucleus results in their inability to be translated and results in haploinsufficiency, a situation where 50% of the protein in not enough to maintain normal function. Mice with both copies of their DMPK gene knocked out manifest a cardiac conduction defect (Berul CI, Maguire CT, Aronovitz MJ, Greenwood J, Miller C, Gehrmann J, Housman D, Mendelsohn ME, Reddy S. DMPK dosage alterations result in atrioventricular conduction abnormalities in a mouse myotonic dystrophy model. J Clin Invest. 1999 Feb;103(4):R1-7. doi: 10.1172/JCI5346. PMID: 10021468; PMCID: PMC408103.) and a CNS phenotype characterized by abnormal long-term potentiation (Schulz PE, McIntosh AD, Kasten MR, Wieringa B, Epstein HF. A role for myotonic dystrophy protein kinase in synaptic plasticity. J Neurophysiol. 2003 Mar;89(3):1177-86. doi: 10.1152/jn.00504.2002. Epub 2002 Nov 13. PMID: 12612014.) hypothesized to be due to inappropriate cytoskeletal remodeling. We propose that our mechanism of action is via direct engagement of our anti-gene with the expanded CUG repeat hairpin structure in the 3' UTR of mutant transcript, invasion and opening of the hairpin structure, and release of the sequestered CUG-repeat binding proteins. This release of sequestered proteins which are normally involved in developmentally appropriate pre-mRNA splicing in the nucleus resolves the generalized splice defect and thus the major causal event. Our DM1 anti-gene is designed to not specifically degrade the mutant transcript, rather to release the RNA-protein aggregates through steric displacement, and as a result may improve endophenotypes of the clinical condition, such as in the heart and brain (contingent on delivering effective concentrations of anti-gene to these tissues).

DM1 is characterized clinically by myotonia (inability to relax a muscle after contraction), muscle weakness, muscle wasting and a CNS endophenotype that is characterized by and is confirmed by molecular genetic testing of DMPK trinucleotiode repeat expansion. CTG repeat length (in the genome) exceeding 34 repeats is abnormal and often patients have hundreds or thousands of repeat units. Molecular genetic testing detects pathogenic variants in nearly 100% of affected individuals. It is estimated that the global prevalence of DM1 is 1 in 20,000 individuals. The clinical candidates in development target the DM1 expanded allele with PATrOL(TM)-enabled drug candidates to disrupt and/or open the mutant hairpin and allow release of sequestered splice proteins, and resolution of the possible contributory haploinsufficiency by allowing the mutant transcript to translocate to the cytoplasm and be expressed together with the wild-type transcript to form a complete complement of DMPK protein in critical tissues. Our recent data illustrates that we are able to systemically deliver our anti-genes intravenously in DM1 genetic mouse models, engage the target in the skeletal muscles of the animals, and rescue the causal splice defect.

Additional Indications

In addition, we are in the process of building an early stage pipeline of other therapies that focus on the unique advantages of our technology across a variety of diseases with an underlying genetic driver.

We believe that the preclinical data we have generated on our PATrOLTM platform and pipeline programs support the advancement of the Company's programs through additional preclinical activities and subsequent IND-enabling studies.

Recent Developments

On December 16, 2020, we announced additional positive preclinical data on our platform and DM1 program. In vitro data highlights in DM1 patient-derived fibroblasts include activity of an anti-gene (Compound A) that targets the CUG repeat in DM1:

� Compound A traffics to the nucleus, engages and normalizes DMPK mRNA.

� Compound A rescues mis-splicing of two key DM1 dysregulated transcripts (MBNL1 and MBNL2) within two days after initial treatment. Notably, induction of rescue continues to improve through day 9, the latest time point analyzed.

� Compound A significantly induces broad correction of global exon inclusion levels of mis-spliced transcripts.

o Statistically significant improvement in global splicing as measured by the human differential splice inclusion (hDSI) statistic.

o More than 175 dysregulated human transcripts achieved statistically significant improvement in splicing, many with completely normalized exon usage.

� DMPK protein levels remain unchanged 5 days after a single Compound A dose, supporting the hypothesized mechanism of action maintaining DMPK.

In vivo data highlights in the HSALR transgenic mouse model of DM1 that expresses high levels of mutant CUG-repeat-containing mRNA (HSA) in skeletal muscle:

� A single intravenous (IV) injection of 29 mg/kg of Compound A traffics to the nucleus and engages HSA mRNA within 24 hours in tibialis anterior (TA) skeletal muscle.

� A single intravenous (IV) injection of Compound A significantly induces broad correction of global exon inclusion levels of mis-spliced transcripts in HSALR TA skeletal muscle at day 13.

� Statistically significant improvement in global splicing as measured by the murine differential splice inclusion (mDSI) statistic.

o More than 50 unique dysregulated murine transcripts achieved statistically significant improvement in splicing post-treatment, with many achieving complete normalization of appropriate exon usage.

� Compound A was well tolerated after single dose administration at the dose demonstrating activity in vivo.

We believe the intersection of the NHP pharmacokinetic data and the in vitro and in vivo pharmacodynamic data provides a roadmap to create a pipeline of therapeutic candidates which can reach target tissues of interest after systemic administration and achieve the desired activity at that dose. We believe that the data from these studies provides a roadmap for the future expansion of the Company's therapeutic pipeline into other indications.

Results of Operations

Results of operations for the fiscal year ended September 30, 2020 reflect the following changes from the year ended September 30, 2019.

                                                                Year Ended September 30,
                                                                 2020              2019             Change
        General and administrative expenses                  $  10,123,298     $   9,095,674     $   1,027,624
        Research and development expenses                        6,946,008         3,447,201         3,498,807
        Research and development expense- license acquired               -        12,967,415       (12,967,415 )
        TOTAL OPERATING EXPENSES                                17,069,306        25,510,290        (8,440,984 )
        LOSS FROM OPERATIONS                                   (17,069,306 )     (25,510,290 )       8,440,984
        Interest expense                                            (7,686 )        (128,951 )         121,265
        Change in fair value of warrant liabilities               (453,808 )        (492,889 )          39,081
        Loss on disposal of fixed asset                             (3,230 )               -            (3,230 )
        Equity in losses on equity method investment              (262,861 )               -          (262,861 )
        Other income                                               412,371                 -           412,371
        Total other expenses, net                                 (315,214 )        (621,840 )         306,626
        NET LOSS                                             $ (17,384,520 )   $ (26,132,130 )   $   8,747,610

Until we are able to generate revenues, our management expects to continue to incur net losses.

General and Administrative Expense

General and administrative expense consists primarily of legal and professional fees, wages and stock-based compensation. General and administrative expenses increased by $1.0 million for the fiscal year ended September 30, 2020, as compared to the fiscal year ended September 30, 2019, primarily due to an increase in employee head count and additional legal and professional services.

Research and Development Expense

Research and development expense consist primarily of professional fees, manufacturing expenses, wages and stock-based compensation. Research and . . .

Dec 23, 2020


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