UNITED STATES
SECURITIES AND EXCHANGE COMMISSION
Washington, D.C. 20549
Form
CURRENT REPORT
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If an emerging growth company, indicate by check mark if the registrant has elected not to use the extended transition period for complying with any new or revised financial accounting standards provided pursuant to Section 13(a) of the Exchange Act. ☐
| Item 2.02 | Results of Operations and Financial Condition. |
On August 10, 2020, Wave Life Sciences Ltd. (the “Company”) announced its financial results for the quarter ended June 30, 2020. The full text of the press release issued in connection with the announcement is furnished as Exhibit 99.1 to this Current Report on Form 8-K and is incorporated by reference herein.
| Item 7.01 | Regulation FD Disclosure. |
From time to time, the Company presents and/or distributes slides and presentations to the investment community to provide updates and summaries of its business. On August 10, 2020, the Company updated its corporate presentation, which is available on the “For Investors & Media” section of the Company’s website at http://ir.wavelifesciences.com/. This presentation is also furnished as Exhibit 99.2 to this Current Report on Form 8-K.
The information in these Items 2.02 and 7.01 shall not be deemed “filed” for purposes of Section 18 of the Securities Exchange Act of 1934, as amended (the “Exchange Act”), or otherwise subject to the liabilities of that section, nor shall it be deemed incorporated by reference in any filing under the Securities Act of 1933, as amended, or the Exchange Act, except as expressly set forth by specific reference in such a filing.
| Item 9.01 | Financial Statements and Exhibits. |
(d) Exhibits
The following exhibits relating to Items 2.02 and 7.01 are furnished and not filed:
| Exhibit |
Description | |
| 99.1 | Press Release issued by Wave Life Sciences Ltd. dated August 10, 2020 | |
| 99.2 | Corporate Presentation of Wave Life Sciences Ltd. dated August 10, 2020 | |
| 104 | Cover Page Interactive Data File (embedded within the Inline XBRL document) | |
SIGNATURES
Pursuant to the requirements of the Securities Exchange Act of 1934, the registrant has duly caused this report to be signed on its behalf by the undersigned hereunto duly authorized.
| WAVE LIFE SCIENCES LTD. | ||
| By: | /s/ Paul B. Bolno, M.D. | |
| Paul B. Bolno, M.D. | ||
| President and Chief Executive Officer | ||
Date: August 10, 2020
Exhibit 99.1
Wave Life Sciences Reports Second Quarter 2020 Financial Results and Provides Business Update
Data from 32 mg cohorts of both PRECISION-HD trials and PRECISION-HD OLE trials expected in 1Q 2021
C9orf72 and SNP3 clinical trial applications on track to be submitted in 4Q 2020
ADAR editing advancing with additional in vivo data expected at upcoming Analyst & Investor Research Webcast
Wave to host investor conference call and webcast at 8:30 a.m. ET today
CAMBRIDGE, Mass., August 10, 2020 – Wave Life Sciences Ltd. (Nasdaq: WVE), a clinical-stage genetic medicines company committed to delivering life-changing treatments for people battling devastating diseases, today announced financial results for the second quarter ended June 30, 2020 and provided a business update.
“In the second quarter, despite persistent global challenges due to the COVID-19 pandemic, we continued to execute on our clinical and preclinical neurology programs. Our clinical, laboratory and manufacturing teams have proven to be adaptable and resilient as they work amidst new operating environments,” said Paul Bolno, MD, MBA, President and Chief Executive Officer of Wave Life Sciences. “We are on track to submit clinical trial applications for our C9orf72 program for amyotrophic lateral sclerosis and frontotemporal dementia and our SNP3 program for HD in the fourth quarter of this year, both of which are designed with a novel chemistry application from our PRISM platform. During our upcoming Analyst & Investor Research Webcast on August 25, we plan to share exciting updates on our platform, including advances in oligonucleotide chemistry and our promising ADAR editing modality, and new preclinical data for our C9orf72 program.”
Recent business highlights
PRECISION-HD programs for Huntington’s disease (HD): Wave is developing a unique portfolio of investigational stereopure oligonucleotides designed to selectively target the mutant allele of the huntingtin (mHTT) gene, while leaving the wild-type (wtHTT) protein relatively intact.
PRECISION-HD trials:
| • | The PRECISION-HD1 and PRECISION-HD2 Phase 1b/2a clinical trials evaluating investigational WVE-120101 and WVE-120102, stereopure oligonucleotides designed to selectively target the mHTT mRNA transcript that contains SNP rs362307 (SNP1) and rs362331 (SNP2), respectively, in patients with HD are ongoing. |
| • | Wave expects to report data from the PRECISION-HD1 and PRECISION-HD2 trials, including the 32 mg dose cohorts for each trial, in the first quarter of 2021. |
| • | Open-label extension (OLE) clinical trials for patients outside of the U.S. who participated in the Phase 1b/2a PRECISION-HD trials are ongoing, and data is expected to be reported in the first quarter of 2021. |
| • | Wave continues to work closely with the PRECISION-HD clinical trial sites, which continue to face restrictions due to COVID-19. |
| • | Wave is assessing the potential for a higher dose cohort to be added to both PRECISION-HD trials. |
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Publications:
| • | In May 2020, Wave’s prospective observational study of the frequency of SNP1 and SNP2 in patients with HD was published in Neurology Genetics. As described in the manuscript titled “Genotyping single nucleotide polymorphisms for allele-selective therapy in Huntington’s disease,” the study confirms the feasibility of rapidly and prospectively identifying SNP1 and / or SNP2 in association with the mHTT allele in patients with HD, to enable allele-selective, personalized treatment approaches in eligible patients. |
SNP3 program for HD: Wave is advancing a third allele-selective HD program, which is designed to selectively target an undisclosed SNP on the mHTT mRNA transcript (SNP3), while leaving the wild-type (wtHTT) protein relatively intact.
| • | Wave expects to initiate clinical development with the submission of a clinical trial application (CTA) for its SNP3 program in the fourth quarter of 2020. |
C9orf72 program for amyotrophic lateral sclerosis (ALS) and frontotemporal dementia (FTD): Wave’s C9orf72 program is designed to selectively target the transcripts containing the hexanucleotide repeat expansion (G4C2) in the C9orf72 gene.
| • | Wave is advancing its C9orf72 preclinical program to potentially treat ALS and FTD and expects to initiate clinical development with the submission of a CTA in the fourth quarter of 2020. |
Central nervous system (CNS) programs in collaboration with Takeda: Wave is leveraging its learnings from PRISMTM, its proprietary discovery and drug development platform, to design additional stereopure oligonucleotides with optimized profiles for CNS indications, including Alzheimer’s disease, Parkinson’s disease and others, as part of its ongoing collaboration with Takeda.
| • | To date, Wave has achieved target validation in vivo with a lead compound for two programs and expects to achieve target validation for a third program in 2020. |
ADAR editing: Wave is advancing a novel RNA editing platform capability using endogenous ADAR (adenosine deaminases acting on RNA) enzymes via free uptake (non-viral, no nanoparticles) of A-to-I base editing oligonucleotides, which has the potential to be a best-in-class RNA editing modality.
| • | In May 2020, Wave presented at the American Society of Gene & Cell Therapy (ASGCT) Annual Meeting. The poster presentation highlighted data that demonstrated Wave’s RNA editing oligonucleotides achieved editing across multiple distinct transcripts in primary human hepatocytes in vitro, which suggests Wave’s platform is applicable to a wide range of disease targets. |
| • | Wave continues to advance its ADAR editing technology in vitro across multiple cell types and in vivo in multiple tissues. In the second quarter of 2020, Wave achieved successful editing of ACTB (Beta-actin) mRNA in non-human primates (NHPs) via endogenous ADARs using stereopure GalNAc-conjugated oligonucleotides. Wave expects to share additional in vivo ADAR editing data at its upcoming Analyst and Investor Research Webcast on August 25, 2020 and at scientific meetings in the second half of 2020. |
| • | Wave also expects to announce its first ADAR editing program in 2020. |
Strengthening leadership team: In May 2020, Wave appointed Kenneth Rhodes, PhD, as Senior Vice President, Therapeutics Discovery. Dr. Rhodes is responsible for defining the strategy and guiding discovery research to design new therapeutic candidates and advance them to the clinic, with an initial focus on neurological diseases.
Analyst and Investor Research Webcast: Wave is scheduled to hold an Analyst and Investor Research Webcast to discuss its latest PRISM platform advancements and neurology-focused oligonucleotide pipeline on Tuesday, August 25th, from 10:00 a.m. – 11:30 a.m.
| • | The webcast event will feature presentations from several members of Wave’s management team, including President and CEO Paul Bolno, MD, MBA, who will present an update on Wave’s strategy to become a leading genetic medicines company focused on neurology. Chandra Vargeese, PhD, Chief Technology Officer, will present an update on Wave’s PRISM platform, novel chemistry advancements, and new data on Wave’s ADAR editing platform capability. Kenneth Rhodes, PhD, Senior Vice President, Therapeutics Discovery, will present on Wave’s current neurology pipeline, including its C9orf72 program for ALS and FTD, and opportunities to apply PRISM to address additional neurological diseases. |
2
Second Quarter 2020 Financial Results and Financial Guidance
Wave reported a net loss of $40.5 million in the second quarter of 2020 as compared to $41.9 million in the same period in 2019.
Research and development expenses were $31.5 million in the second quarter of 2020 as compared to $41.6 million in the same period in 2019. The decrease in research and development expenses in the second quarter was primarily due to decreased external expenses related to suvodirsen due to our December 2019 decision to discontinue the program, partially offset by increased external expenses related to our clinical and preclinical activities, including our HD and C9orf72 programs for ALS and FTD.
General and administrative expenses were $10.2 million in the second quarter of 2020 as compared to $11.6 million in the same period in 2019. The decrease in general and administrative expenses in the second quarter of 2020 was mainly driven by decreased headcount resulting from the workforce reduction implemented in February 2020.
As of June 30, 2020, Wave had $94.1 million in cash and cash equivalents as compared to $147.2 million as of December 31, 2019. The decrease in cash and cash equivalents was mainly due to Wave’s year-to-date net loss of $88 million, partially offset by the receipt of $20 million in research support funding from Takeda under our collaboration and $12 million in net proceeds under our at-the-market equity program.
Wave expects that its existing cash and cash equivalents, together with expected and committed cash from its existing collaboration will enable the company to fund its operating and capital expenditure requirements into the fourth quarter of 2021.
Investor Conference Call and Webcast
Wave management will host an investor conference call today at 8:30 a.m. ET to discuss the company’s second quarter 2020 operating results and provide a business update. The conference call may be accessed by dialing (866) 220-8068 (domestic) or +1 (470) 495-9153 (international) and entering conference ID 4791316. The live webcast may be accessed from the investor relations section of the Wave Life Sciences corporate website at ir.wavelifesciences.com. Following the webcast, a replay will be available on the website.
About PRISM™
PRISM is Wave Life Sciences’ proprietary discovery and drug development platform that enables genetically defined diseases to be targeted with stereopure oligonucleotides across multiple therapeutic modalities. PRISM combines the company’s unique ability to construct stereopure oligonucleotides with a deep understanding of how the interplay among oligonucleotide sequence, chemistry and backbone stereochemistry impacts key pharmacological properties. By exploring these interactions through iterative analysis of in vitro and in vivo outcomes and artificial intelligence-driven predictive modeling, the company continues to define design principles that are deployed across programs to rapidly develop and manufacture clinical candidates that meet pre-defined product profiles.
About Wave Life Sciences
Wave Life Sciences (Nasdaq: WVE) is a clinical-stage genetic medicines company committed to delivering life-changing treatments for people battling devastating diseases. Wave aspires to develop best-in-class medicines across multiple therapeutic modalities using PRISMTM, the company’s proprietary discovery and drug development platform that enables the precise design, optimization and production of stereopure oligonucleotides. Driven by a resolute sense of urgency, the Wave team is targeting a broad range of genetically defined diseases so that patients and families may realize a brighter future. To find out more, please visit wavelifesciences.com and follow Wave on Twitter @WaveLifeSci.
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Forward-Looking Statements
This press release contains forward-looking statements concerning our goals, beliefs, expectations, strategies, objectives and plans, and other statements that are not necessarily based on historical facts, including statements regarding the following, among others: the anticipated commencement, patient enrollment, data readouts and completion of our clinical trials, and the announcement of such events; the protocol, design and endpoints of our ongoing and planned clinical trials; the future performance and results of our programs in clinical trials; future preclinical activities and programs; regulatory submissions; the progress and potential benefits of our collaborations with partners; the potential of our in vitro and in vivo preclinical data to predict the behavior of our compounds in humans; our identification of future candidates and their therapeutic potential; the anticipated therapeutic benefits of our potential therapies compared to others; our ability to design compounds using multiple modalities and the anticipated benefits of that model; the anticipated benefits of our proprietary manufacturing processes and our internal manufacturing capabilities; the potential benefits of PRISM and our stereopure oligonucleotides compared with stereorandom oligonucleotides; the benefit of nucleic acid therapeutics generally; the strength of our intellectual property; the anticipated duration of our cash runway; and our expectations regarding the impact of the COVID-19 pandemic on our business. Actual results may differ materially from those indicated by these forward-looking statements as a result of various important factors, including the following: our ability to finance our drug discovery and development efforts and to raise additional capital when needed; the severity and duration of the COVID-19 pandemic and its potentially negative impact on the conduct of, and the timing of enrollment, completion and reporting with respect to, our clinical trials; any other impacts on our business as a result of or related to the COVID-19 pandemic; the ability of our preclinical programs to produce data sufficient to support our clinical trial applications and the timing thereof; our ability to maintain the company infrastructure and personnel needed to achieve our goals; the clinical results of our programs, which may not support further development of product candidates; actions of regulatory agencies, which may affect the initiation, timing and progress of clinical trials; our effectiveness in managing future clinical trials and regulatory interactions; the effectiveness of PRISM; the continued development and acceptance of oligonucleotides as a class of medicines; our ability to demonstrate the therapeutic benefits of our candidates in clinical trials, including our ability to develop candidates across multiple therapeutic modalities; our dependence on third parties, including contract research organizations, contract manufacturing organizations, collaborators and partners; our ability to manufacture or contract with third parties to manufacture drug material to support our programs and growth; our ability to obtain, maintain and protect our intellectual property; our ability to enforce our patents against infringers and defend our patent portfolio against challenges from third parties; and competition from others developing therapies for similar indications, as well as the information under the caption “Risk Factors” contained in our most recent Annual Report on Form 10-K filed with the Securities and Exchange Commission (SEC) and in other filings we make with the SEC from time to time. We undertake no obligation to update the information contained in this press release to reflect subsequently occurring events or circumstances.
4
WAVE LIFE SCIENCES LTD.
UNAUDITED CONSOLIDATED BALANCE SHEETS
(In thousands, except share amounts)
| June 30, 2020 | December 31, 2019 | |||||||
| Assets |
||||||||
| Current assets: |
||||||||
| Cash and cash equivalents |
$ | 94,054 | $ | 147,161 | ||||
| Current portion of accounts receivable |
30,000 | 20,000 | ||||||
| Prepaid expenses |
6,452 | 9,626 | ||||||
| Other current assets |
16,328 | 8,689 | ||||||
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|
|
|
|
|||||
| Total current assets |
146,834 | 185,476 | ||||||
|
|
|
|
|
|||||
| Long-term assets: |
||||||||
| Accounts receivable, net of current portion |
— | 30,000 | ||||||
| Property and equipment, net |
33,096 | 36,368 | ||||||
| Operating lease right-of-use assets |
17,201 | 18,101 | ||||||
| Restricted cash |
3,650 | 3,647 | ||||||
| Other assets |
3,170 | 10,658 | ||||||
|
|
|
|
|
|||||
| Total long-term assets |
57,117 | 98,774 | ||||||
|
|
|
|
|
|||||
| Total assets |
$ | 203,951 | $ | 284,250 | ||||
|
|
|
|
|
|||||
| Liabilities, Series A preferred shares and shareholders’ equity |
||||||||
| Current liabilities: |
||||||||
| Accounts payable |
$ | 13,910 | $ | 9,073 | ||||
| Accrued expenses and other current liabilities |
8,220 | 16,185 | ||||||
| Current portion of deferred revenue |
84,849 | 89,652 | ||||||
| Current portion of operating lease liability |
3,473 | 3,243 | ||||||
|
|
|
|
|
|||||
| Total current liabilities |
110,452 | 118,153 | ||||||
|
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|
|
|
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| Long-term liabilities: |
||||||||
| Deferred revenue, net of current portion |
61,081 | 63,466 | ||||||
| Operating lease liability, net of current portion |
27,513 | 29,304 | ||||||
| Other liabilities |
1,520 | 1,721 | ||||||
|
|
|
|
|
|||||
| Total long-term liabilities |
$ | 90,114 | $ | 94,491 | ||||
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|
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| Total liabilities |
$ | 200,566 | $ | 212,644 | ||||
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|
|
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|
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| Series A preferred shares, no par value; 3,901,348 shares issued and outstanding at June 30, 2020 and December 31, 2019 |
$ | 7,874 | $ | 7,874 | ||||
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|
|
|
|
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| Shareholders’ equity: |
||||||||
| Ordinary shares, no par value; 35,732,154 and 34,340,690 shares issued and outstanding at June 30, 2020 and December 31, 2019, respectively |
$ | 551,543 | $ | 539,547 | ||||
| Additional paid-in capital |
65,070 | 57,277 | ||||||
| Accumulated other comprehensive income |
278 | 267 | ||||||
| Accumulated deficit |
(621,380 | ) | (533,359 | ) | ||||
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|
|||||
| Total shareholders’ equity |
$ | (4,489 | ) | $ | 63,732 | |||
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|
|
|
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| Total liabilities, Series A preferred shares and shareholders’ equity |
$ | 203,951 | $ | 284,250 | ||||
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The accompanying notes are an integral part of the unaudited consolidated financial statements.
5
WAVE LIFE SCIENCES LTD.
UNAUDITED CONSOLIDATED STATEMENTS OF OPERATIONS AND COMPREHENSIVE LOSS
(In thousands, except share and per share amounts)
| Three Months Ended June 30, | Six Months Ended June 30, | |||||||||||||||
| 2020 | 2019 | 2020 | 2019 | |||||||||||||
| Revenue |
$ | 3,027 | $ | 7,628 | $ | 7,188 | $ | 10,654 | ||||||||
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| Operating expenses: |
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| Research and development |
31,478 | 41,605 | 72,636 | 81,718 | ||||||||||||
| General and administrative |
10,205 | 11,640 | 23,201 | 22,541 | ||||||||||||
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| Total operating expenses |
41,683 | 53,245 | 95,837 | 104,259 | ||||||||||||
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| Loss from operations |
(38,656 | ) | (45,617 | ) | (88,649 | ) | (93,605 | ) | ||||||||
| Other income (expense), net: |
||||||||||||||||
| Dividend income |
135 | 1,544 | 520 | 2,968 | ||||||||||||
| Interest income (expense), net |
(2 | ) | 8 | 1 | 19 | |||||||||||
| Other income (expense), net |
(2,005 | ) | 2,123 | 107 | 4,476 | |||||||||||
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| Total other income (expense), net |
(1,872 | ) | 3,675 | 628 | 7,463 | |||||||||||
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|||||||||
| Loss before income taxes |
(40,528 | ) | (41,942 | ) | (88,021 | ) | (86,142 | ) | ||||||||
| Income tax provision |
— | — | — | — | ||||||||||||
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| Net loss |
$ | (40,528 | ) | $ | (41,942 | ) | $ | (88,021 | ) | $ | (86,142 | ) | ||||
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| Net loss per share attributable to ordinary shareholders—basic and diluted |
$ | (1.15 | ) | $ | (1.22 | ) | $ | (2.53 | ) | $ | (2.58 | ) | ||||
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| Weighted-average ordinary shares used in computing net loss per share attributable to ordinary shareholders—basic and diluted |
35,212,291 | 34,260,298 | 34,836,898 | 33,433,322 | ||||||||||||
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| Other comprehensive income (loss): |
||||||||||||||||
| Net loss |
$ | (40,528 | ) | $ | (41,942 | ) | $ | (88,021 | ) | $ | (86,142 | ) | ||||
| Foreign currency translation |
5 | 30 | 11 | 127 | ||||||||||||
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|||||||||
| Comprehensive loss |
$ | (40,523 | ) | $ | (41,912 | ) | $ | (88,010 | ) | $ | (86,015 | ) | ||||
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The accompanying notes are an integral part of the unaudited consolidated financial statements.
Investor Contact:
Kate Rausch
617-949-4827
krausch@wavelifesci.com
Media Contact:
Alicia Suter
617-949-4817
asuter@wavelifesci.com
6
Wave Life Sciences Corporate Presentation August 10, 2020 Exhibit 99.2
Forward-looking statements This document contains forward-looking statements. All statements other than statements of historical facts contained in this document, including statements regarding possible or assumed future results of operations, preclinical and clinical studies, business strategies, research and development plans, collaborations and partnerships, regulatory activities and timing thereof, competitive position, potential growth opportunities, use of proceeds and the effects of competition are forward-looking statements. These statements involve known and unknown risks, uncertainties and other important factors that may cause the actual results, performance or achievements of Wave Life Sciences Ltd. (the “Company”) to be materially different from any future results, performance or achievements expressed or implied by the forward-looking statements. In some cases, you can identify forward-looking statements by terms such as “may,” “will,” “should,” “expect,” “plan,” “aim,” “anticipate,” “could,” “intend,” “target,” “project,” “contemplate,” “believe,” “estimate,” “predict,” “potential” or “continue” or the negative of these terms or other similar expressions. The forward-looking statements in this presentation are only predictions. The Company has based these forward-looking statements largely on its current expectations and projections about future events and financial trends that it believes may affect the Company’s business, financial condition and results of operations. These forward-looking statements speak only as of the date of this presentation and are subject to a number of risks, uncertainties and assumptions, including those listed under Risk Factors in the Company’s Form 10-K and other filings with the SEC, some of which cannot be predicted or quantified and some of which are beyond the Company’s control. The events and circumstances reflected in the Company’s forward-looking statements may not be achieved or occur, and actual results could differ materially from those projected in the forward-looking statements. Moreover, the Company operates in a dynamic industry and economy. New risk factors and uncertainties may emerge from time to time, and it is not possible for management to predict all risk factors and uncertainties that the Company may face. Except as required by applicable law, the Company does not plan to publicly update or revise any forward-looking statements contained herein, whether as a result of any new information, future events, changed circumstances or otherwise.
Building a leading genetic medicines company Innovative platform Stereopure oligonucleotides Backbone modifications Allele-selectivity Novel modalities (ADAR) Foundational stereochemistry IP Foundation of NEUROLOGY programs Huntington’s disease ALS / FTD Ataxias Parkinson’s disease Alzheimer’s disease Clinical development expertise Multiple global clinical trials ongoing across eight countries Innovative trial designs Manufacturing Established internal manufacturing capabilities to produce oligonucleotides at scale Cash runway into 3Q 2021, including expected and committed cash from collaborations ALS: Amyotrophic lateral sclerosis; FTD: Frontotemporal dementia
THERAPEUTIC AREA TARGET DISCOVERY PRECLINICAL CLINICAL ESTIMATED U.S. PREVALENCE* PARTNER Huntington’s disease WVE-120101 mHTT SNP1 ~10,000 / ~35,000 Takeda 50:50 option WVE-120102 mHTT SNP2 ~10,000 / ~35,000 Takeda 50:50 option mHTT SNP3 ~8,000 / ~30,000 Takeda 50:50 option ALS and FTD C9orf72 ~1,800 (ALS) ~7,000 (FTD) Takeda 50:50 option SCA3 ATXN3 ~4,500 Takeda 50:50 option CNS diseases Multiple† Takeda milestones & royalties ADAR editing Multiple 100% global ADAR editing Undisclosed 100% global Retinal diseases USH2A and RhoP23H 100% global NEUROLOGY HEPATIC OPTHALMOLOGY Phase 1b/2a and OLE Phase 1b/2a and OLE Innovative pipeline led by neurology programs *Estimates of U.S. prevalence and addressable population by target based on publicly available data and are approximate; for Huntington’s disease, numbers approximate manifest and pre-manifest populations, respectively. †During a four-year term, Wave and Takeda may collaborate on up to six preclinical targets at any one time. ALS: Amyotrophic lateral sclerosis; FTD: Frontotemporal dementia; SCA3: Spinocerebellar ataxia 3 CNS: Central nervous system; OLE: Open-label extension
HD portfolio Huntington’s Disease
Huntington’s disease: a hereditary, fatal disorder Sources: Auerbach W, et al. Hum Mol Genet. 2001;10:2515-2523. Dragatsis I, et al. Nat Genet. 2000;26:300-306. Leavitt BR, et al. J Neurochem. 2006;96:1121-1129. Nasir J, et al. Cell. 1995;81:811-823. Reiner A, et al. J Neurosci. 2001;21:7608-7619. White JK, et al. Nat Genet. 1997;17:404-410. Zeitlin S, et al. Nat Genet. 1995;11:155-163. Carroll JB, et al. Mol Ther. 2011;19:2178-2185. HDSA ‘What is Huntington’s disease?’ https://hdsa.org/what-is-hd/overview-of-huntingtons-disease/ Accessed: 11/2/18.; Becanovic, K., et al., Nat Neurosci, 2015. 18(6): p. 807-16. Van Raamsdonk, J.M., et al., Hum Mol Genet, 2005. 14(10): p. 1379-92.; Van Raamsdonk, J.M., et al., BMC Neurosci, 2006. 7: p. 80. DNA CAG Repeat RNA wild-type (healthy) allele RNA mutant allele Normal CAG Repeat Expanded CAG Repeat Healthy protein (HTT) Mutant protein (mHTT) Neuro HD Autosomal dominant disease, characterized by cognitive decline, psychiatric illness and chorea; fatal No approved disease-modifying therapies Expanded CAG triplet repeat in HTT gene results in production of mutant huntingtin protein (mHTT); accumulation of mHTT causes progressive loss of neurons in the brain Wild-type (healthy) HTT protein critical for neuronal function; evidence suggests wild-type HTT loss of function plays a role in Huntington’s disease 30,000 people with Huntington’s disease in the US; another 200,000 at risk of developing the condition
Evidence suggests wild-type or healthy HTT is neuroprotective in an adult brain Transport of key neurotrophic factors such as brain-derived neurotrophic factor (BDNF) are regulated by wtHTT levels Relative proportion of wild-type to mutant protein is critical Increased amount of wild-type protein relative to mutant HTT may result in slower disease progression (measured by age-at-onset) Patients with lack of wild-type have significantly more severe disease (measured by disease progression after symptom onset) Importance of wild-type huntingtin (wtHTT) in HD Neuro HD Huntington’s disease (HD) may be caused by a dominant gain of function in mutant HTT and a loss of function of wtHTT protein Sources: Van Raamsdonk, J.M., et al., Hum Mol Genet, 2005; Van Raamsdonk, J.M., et al., BMC Neurosci, 2006; Becanovic, K., et al., Nat Neurosci, 2015; Saudou, F. and S. Humbert, The Biology of Huntingtin. Neuron, 2016; Gauthier, L.R., et al., Cell, 2004; Caviston, J.P. and E.L. Holzbaur, Trends Cell Biol, 2009; Ho, L.W., et al., J Med Genet, 2001, Zuccato et al., Science 2001; Zuccato et al., Brain Pathol 2007; Marullo et al. Genome Biol 2010; Squitieri et. al, Brain 2003 BDNF TrkB ERK CREB transport BDNF Neuroprotection
Nature publication contributes to weight of evidence on importance of wild-type huntingtin Poplawski et al., Nature, April 2019; Htt: Huntingtin protein Conditional knock-out of Htt in 4-month old mice (post-neuronal development) Results suggest that: Htt plays a central role in the regenerating transcriptome (potentially influencing genes such as NFKB, STAT3, BDNF) Htt is essential for regeneration Indeed, conditional gene deletion showed that Htt is required for neuronal repair. Throughout life, neuronal maintenance and repair are essential to support adequate cellular functioning Neuro HD
Increasing evidence on the importance of wtHTT in HD pathogenesis, CNS and systemic health Striatum-specific defect in synaptic vesicle endocytosis that was not corrected by total lowering of HTT Corrected by overexpression of wild-type protein Striatal projection neurons require HTT for motor regulation, synaptic development, cell health, and survival during aging Loss of HTT function could play a critical role in HD pathogenesis wtHTT in HD highlighted at CHDI 15th Annual HD Therapeutics Conference: HTT LOWERING: EXPLORING DISTRIBUTION, TIMING, AND SAFETY (LOSS OF FUNCTION) Key points discussed at meeting: wtHTT has numerous critical functions throughout life (e.g., intracellular trafficking, cell-cell adhesion, BDNF transport) Near elimination of mouse wtHtt detrimental regardless of when suppression begins Specific brain regions, e.g., STN, may be particularly vulnerable to wtHTT lowering Mouse Htt lowering can lead to thalamic, hepatic, pancreatic toxicity HTT LoF mutations highly constrained in human population, suggesting selection against LoF mutations Recent publications on wtHTT LoF as a likely driver of HD pathogenesis LoF: Loss of function; wtHTT: wild-type huntingtin; HD: Huntington’s disease; STN: subthalamic nucleus Neuro HD
Wild-type HTT in the cortex appears critical for striatal health Presented by Dr. Frederic Saudou at Wave’s Analyst and Investor Research Day on October 7, 2019 Virlogeux et al., Cell Reports 2018 Neuro HD Neuron Type Genetic Status Compartment Cortical Striatal Network Status Functional Dysfunctional Post-synaptic Synaptic Presynaptic Status of the presynaptic compartment determines the integrity of the network
Utilize association between single nucleotide polymorphisms (SNPs) and genetic mutations to specifically target errors in genetic disorders, including Huntington’s disease (HD) Potential to provide treatment for up to 80% of HD population Wave approach: novel, allele-selective silencing Source: Kay, et al. Personalized gene silencing therapeutics for Huntington disease. Clin Genet. 2014;86:29–36. Neuro HD Aims to lower mHTT transcript while leaving healthy wild-type HTT relatively intact Allele-selectivity possible by targeting SNPs associated with expanded long CAG repeat in HTT gene RNase H and ASO:RNA RNA mutant allele
Selective reduction of mHTT mRNA & protein Reporter Cell Line* Neuro HD Source: Meena, Zboray L, Svrzikapa N, et al. Selectivity and biodistribution of WVE-120101, a potential antisense oligonucleotide therapy for the treatment of Huntington’s disease. Paper presented at: 69th Annual Meeting of the American Academy of Neurology; April 28, 2017; Boston, MA.
Demonstrated delivery to brain tissue WVE-120101 and WVE-120102 distribution in cynomolgus non-human primate brain following intrathecal bolus injection In Situ Hybridization ViewRNA stained tissue Red dots are WVE-120102 oligonucleotide Arrow points to nuclear and perinuclear distribution of WVE-120102 in caudate nucleus Red dots are WVE-120101 oligonucleotide Arrow points to nuclear and perinuclear distribution of WVE- 120101 in cingulate cortex CIC = cingulate cortex In Situ Hybridization ViewRNA stained tissue Neuro HD CN = caudate nucleus Source: Meena, Zboray L, Svrzikapa N, et al. Selectivity and biodistribution of WVE-120101, a potential antisense oligonucleotide therapy for the treatment of Huntington’s disease. Paper presented at: 69th Annual Meeting of the American Academy of Neurology; April 28, 2017; Boston, MA.
Safety profile supported addition of higher dose cohorts PRECISION-HD clinical trials Single Dose Multidose 196 1 Washout CSF sample Dose 28 56 84 112 Study Day* 140 OLE 2 mg 4 mg 8 mg 16 mg 32 mg PRECISION-HD2 and PRECISION-HD1 data, including 32 mg cohorts and OLE data, expected in 1Q 2021 Multidose Cohorts (N = 12 per cohort) PRECISION-HD2 interim data (2-16 mg cohorts pooled) OLE: Open label extension; CSF: cerebrospinal fluid; mHTT: mutant huntingtin; wtHTT: wild-type HTT; tHTT: total HTT * Study day may vary depending on patient washout period 1Hodges-Lehmann non-parametric shift estimates of the difference between treatment and placebo, p<0.05 (Wilcoxon-Mann-Whitney non-parametric significance test); 3 Multiple Contrast Test (MCT), p=0.03; Interim data announced December 2019 Biomarker Effects Two Phase 1b/2a clinical trials for WVE-120101 and WVE-120102 ongoing Patients are migrated to highest dose tested Reduction in mHTT (-12.4%1); Analysis across groups suggests dose response at highest doses3 No change in total HTT Not all patients had reached Day 140 at interim analysis Neuro HD
Three allele-selective HD programs Intend to explore efficacy in early manifest and pre-manifest HD patient populations Neuro HD Potential to address ~80% of HD patient population % Huntington’s Disease Patient Population with SNP SNP1 SNP2 SNP3 SNP1 SNP2 SNP1 SNP2 SNP3 ~50% ~50% ~40% ~70% ~80% +10% of HD patients vs. SNP1 + SNP2
SNP3 program approaching clinical development Knockdown persists for 12 weeks in BACHD mouse model Data presented at CHDI Foundation’s 15th Annual HD Therapeutics Conference Feb 24-27, 2020; See poster for full dataset. CTA: clinical trial application [Figure on right] Statistics: All oligo treatment groups statistically significantly different from PBS; One-way ANOVA ****, P≤0.0001. SNP3 Compound-1 and Compound-2 significantly different from pan-silencing active comparator at 8, 12 weeks ***, P<0.005; **P=0.001.” Clinical development expected to initiate with CTA submission in 4Q 2020 Pan-silencing active comparator Wave SNP3 Compound-1 Wave SNP3 Compound-2 Relative HTT mRNA expression Log10 (µM compound concentration) Pan-silencing active comparator Wave SNP3 Compound-1 Wave SNP3 Compound-2 wtHTT mRNA Cortex Similar knockdown achieved in striatum Potent mutant HTT knockdown activity in homozygous iCell neurons No loss of selectivity with increasing concentrations mHTT mRNA Neuro HD
C9orf72 program Amyotrophic Lateral Sclerosis (ALS) Frontotemporal Dementia (FTD)
C9orf72: a critical genetic risk factor C9orf72 gene provides instructions for making protein found in various tissues, with abundance in nerve cells in the cerebral cortex and motor neurons C9orf72 genetic mutations are the strongest genetic risk factor found to date for the more common, non-inherited (sporadic) forms of Amyotrophic Lateral Sclerosis (ALS) and Frontotemporal Dementia (FTD); GGGGCC repeat drives the formation and accumulation of toxic RNA and dipeptide repeat proteins that accumulate in CNS tissue First pathogenic mechanism identified to be a genetic link between familial (inherited) ALS and FTD Most common mutation identified associated with familial ALS and FTD Measurement of dipeptide biomarker in CSF has potential to accelerate drug development expanded GGGGCC repeat hexanucleotide repeat transcript Neuro C9orf72 Source: DeJesus-Hernandez M, Mackenzie IR, Boeve BF, et al. Neuron. 2011;72:245-256. Renton AE, Majounie E, Waite A, et al. Neuron. 2011;72:257-268.
Targeting patients with C9orf72 genetic mutations Fatal neurodegenerative disease; progressive degeneration of motor neurons in brain and spinal cord Affects ~15,000-20,000 people in US; Median survival of 3Y C9orf72 is present in ~40% of familial ALS and 8-10% of sporadic ALS; most common demonstrated mutation related to ALS ALS: Renton AE, Chiò A, Traynor BJ. State of play in amyotrophic lateral sclerosis genetics. Nat Neurosci. 2014;17:17–23.; FTD: Stevens M, et al. Familial aggregation in frontotemporal dementia. Neurology. 1998;50:1541-1545. Majounie E, et al. Frequency of the C9orf72 hexanucleotide repeat expansion in patients with amyotrophic lateral sclerosis and frontotemporal dementia: a cross-sectional study. Lancet Neurol. 2012;11:323-330. ~8-10% ~40% ~10% Familial ~90% Sporadic Progressive neuronal atrophy with loss in frontal and temporal cortices; personality / behavioral changes, gradual impairment of language skills Affects ~55,000 people in the US; 2nd most common form of early-onset dementia in people <65 years Up to 50% of FTD patients have a family history of dementia ~38% 10% - 50% Familial ~6% 50% - 90% Sporadic Amyotrophic lateral sclerosis (ALS) Frontotemporal dementia (FTD) Neuro C9orf72
2 4 8 week 2 4 8 Repeat-containing transcripts C9orf72 candidate PBS Relative fold change C9orf72 V3/mHPRT 2 4 8 week 2 4 8 C9orf72 program: Selective silencing in vivo of expanded C9orf72 repeat transcripts and DPRs Clinical development expected to initiate with CTA submission in 4Q 2020 Hexanucleotide repeat drives the formation and accumulation of toxic RNA and dipeptide repeat proteins (DPRs) that accumulate in CNS tissue Wave’s approach: Selectively silence the repeat containing transcript while minimizing the impact on C9orf72 protein Potent in vivo knockdown of repeat containing transcripts and DPRs Protein preservation Spinal Cord Cortex Repeat-containing transcripts C9orf72 candidate PBS Relative fold change C9orf72 V3/mHPRT DPRs C9orf72 candidate PBS C9orf72 candidate C9orf72 candidate Relative Poly-GP levels (normalized to PBS) Total C9orf72 protein (8 weeks) C9orf72/mHPRT/PBS NS DPRs C9orf72 candidate PBS PBS PBS Relative Poly-GP levels (normalized to PBS) Total C9orf72 protein (8 weeks) C9orf72/mHPRT/PBS NS CTA: clinical trial application; Experimental description: 2 x 50 ug on day 1 and day 8; mRNA Samples were analyzed using quantitative PCR (Taqman assay), Protein samples were measured by Western Blot. Dipeptide repeat proteins were measured by Poly-GP MSD assay. 2 4 8 week 2 4 8 2 4 8 week 2 4 8 Neuro C9orf72
PRISM Platform
Through iterative analysis of in vitro and in vivo outcomes and artificial intelligence-driven predictive modeling, Wave continues to define design principles that are deployed across programs to rapidly develop and manufacture clinical candidates that meet pre-defined product profiles DESIGN Unique ability to construct stereopure oligonucleotides with one defined and consistent profile Enables Wave to target genetically defined diseases with stereopure oligonucleotides across multiple therapeutic modalities OPTIMIZE A deep understanding of how the interplay among oligonucleotide sequence, chemistry, and backbone stereochemistry impacts key pharmacological properties SEQUENCE STEREOCHEMISTRY CHEMISTRY
PRISM enables optimal placement of backbone stereochemistry Crystal structure confirms phosphate-binding pocket of RNase H binds 3’-SSR-5’ motif in stereopure oligonucleotide – supports design strategy for Wave oligonucleotides ASO/RNA duplex Yellow spheres represent ‘S’ atoms Phosphate binding pocket RNA cleavage site Target RNA Stereopure Oligonucleotide (C9orf72 compound) RNase H + +
Importance of controlling stereochemistry (Rp) (Sp) Top view Side view Yellow spheres represent ‘S’ atomsPS: Phosphorothioate Number of PS linkages in oligonucleotide backbone No. diastereomers 80T 60T 40T 20T 30B 22M 12M 2M 1M 500K 0 0 10 20 30 40 50 Antisense, exon skipping, ssRNAi ADAR oligonucleotide CRISPR guide Stereochemical diversity Exponential diversity arises from uncontrolled stereochemistry
Continuous Learning PRISM platform enables rational drug design Source: Iwamoto N, et al. Control of phosphorothioate stereochemistry substantially increases the efficacy of antisense oligonucleotides. Nat Biotechnol. 2017;35:845-851.
Liver Knockdown of Serum APOC3 Protein Levels in Mice Two 5 mg/kg SC injections on Days 1&3 Stereorandom Stereopure Data represented in this slide from in vivo studies. CNS: Central nervous system; PBS = phosphate buffered saline; Ctx = cortex; Str = striatum; Cb = cerebellum; Hp = hippocampus; SC = spinal cord. ICV = intracerebral; IVT = intravitreal; IV = intravenous; SC= subcutaneous. Optimizing potency and durability across multiple tissues CNS Malat1 Transcript Knockdown in Mice 10 Weeks after single 100 µg ICV injection Malat1 Transcript Knockdown (Percentage of control) PBS Ctx Str Cb Hp SC Eye MALAT1 Knockdown in Non-Human Primates Single 450 µg IVT injection PBS Stereopure Retina MALAT1 RNA Remaining MALAT1/GAPDH 1 week 8 weeks 16 weeks APOC3 Protein (Relative to PBS) Time (weeks)
ADAR-mediated RNA editing
ADAR editing: A promising new therapeutic modality for treatment of genetic diseases Potential benefits versus gene editing A-to-I(G) RNA editing opportunity is significant >32,000 pathogenic human SNPs1 Ability to use endogenous proteins (e.g. ADAR) Ease of delivery Titratable, repeatable dosing Reversible effects, avoids potential long-term risks associated with permanent off-target DNA editing Nearly half of known human genetic pathogenic SNPs are G-to-A mutations1 Tens of thousands of potential disease variants A-to-I(G) editing could target2 SNP: single nucleotide polymorphism A: Adenosine I: Inosine G: Guanosine 1 Gaudeli NM et al. Nature (2017). 2 ClinVar database Pathogenic human SNPs by base pair corrections ADAR (adenosine deaminases acting on RNA) ~48% C-to-T C-to-G A-to-T C-to-A A-to-C A-to-G Endogenous proteins that catalyze A-to-I RNA editing Upon translation, I recognized as G, leading to A-to-G editing ADAR editing
ADAR editing can be used for several therapeutic applications and supplement Wave’s existing modalities Silence protein expression Reduce levels of toxic mRNA/protein ü ü Alter mRNA splicing Exon skipping/inclusion/ restore frame ü ü Fix nonsense mutations that cannot be splice-corrected Restore protein expression ü Fix missense mutations that cannot be splice-corrected Restore protein function ü Modify amino acid codons Alter protein function ü Remove upstream ORF Increase protein expression ü Strategy Therapeutic Application Silencing Splicing ADAR Editing Treatment Modality I (G): ADAR converts A>I, I is recognized as G by all cellular machinery; ADAR: Adenosine Deaminase Acting on RNA; ORF: Open reading frame ADAR editing
Structure of ADAR deaminase domain bound to dsRNA substrate Using PRISM to unlock ADAR-mediated RNA editing Target mRNA Oligonucleotide ADAR makes multiple contacts with oligonucleotide backbone, sugar and bases Using PRISM platform, rationally designed and screened oligonucleotides to optimize: 2' sugar chemistry Backbone chemistry and stereochemistry Size and structure Modified nucleobases ~1,000 RNA editing oligonucleotides tested over the last year to develop SAR for editing format Structure adapted from Matthews et al., Nat Struct Mol Biol. (2016); SAR = structure-activity relationship; ADAR: Adenosine Deaminase Acting on RNA; dsRNA = double-stranded RNA ADAR editing
Wave platform Advantages of Wave ADAR-mediated RNA-editing platform Fully chemically modified to increase stability in vivo Chirally-controlled backbone to maximize in vitro activity GalNAc-conjugated for targeted delivery into liver No requirement for AAV / nanoparticles No immunogenicity from exogenous proteins Reduced off-target effects1 1Chen et al. Biochemistry 2019 Building RNA-editing capability for PRISM platform ADAR editing Chemically modified Simplified Delivery Endogenous ADAR
NHP Hepatocytes Human Hepatocytes In vitro RNA editing demonstrated in non-human primate and human hepatocytes NHP: non-human primate; ACTB: Beta-actin; nd= not determined Total RNA was harvested, reverse transcribed to generate cDNA, and the editing target site was amplified by PCR. Potent, dose-dependent RNA editing demonstrated via free uptake with GalNAc-conjugated stereopure oligonucleotides ACTB 1 ACTB 2 ACTB 3 ACTB 1 ACTB 2 ACTB 3 ADAR editing
First non-human primate RNA editing NHP – non-human primate; ACTB: Beta-actin; Left: 5mg/kg SC: Day 1,2,3,4,5; Liver Biopsy for mRNA (ACTB Editing) & eASO Exposure: Day 7 Right: % Editing quantified from Sanger sequencing using EditR program. In vivo – NHP Liver biopsies conducted at baseline and 2 days post last dose RNA-editing efficiencies of up to 50% with GalNAc conjugate in liver of NHP Baseline Post-treatment ACTB 1 ACTB 2 ACTB 3 Up to ~50% editing efficiency T A G ACTB 2 T G G ACTB 2 n=6 ADAR editing
RNA-editing design applicable across targets Data presented at 1st International Conference on Base Editing – Enzymes and Applications (Deaminet 2020); See poster for full dataset Editing achieved across several distinct RNA transcripts Supports potential for technology to be applied across variety of disease targets Additional in vivo ADAR-mediated RNA-editing data and first ADAR editing program expected to be announced in 2020 In vitro RNA Editing in Primary Human Hepatocytes ADAR editing
Ophthalmology
Stereopure oligonucleotides for inherited retinal diseases (IRDs) Wave ophthalmology opportunity Oligonucleotides can be administered by intravitreal (IVT) injection; targeting twice per year dosing Stereopure oligonucleotides open novel strategies in both dominant and recessive IRDs; potential for potent and durable effect with low immune response Successful targeting of MALAT1 is a surrogate for an ASO mechanism of action Widely expressed in many different cell types Only expressed in the nucleus Intravitreal injection Sources: Daiger S, et al. Clin Genet. 2013;84:132-141. Wong CH, et al. Biostatistics. 2018; DOI: 10.1093/biostatistics/kxx069. Athanasiou D, et al. Prog Retin Eye Res. 2018;62:1–23. Daiger S, et al. Cold Spring Harb Perspect Med. 2015;5:a017129. Verbakel S, et al. Prog Retin Eye Res. 2018:66:157-186.; Short, B.G.; Toxicology Pathology, Jan 2008. Ophthalmology
Stereopure compound induces potent and durable MALAT1 knockdown in the eye ~50% MALAT1 knockdown at 9 months Mouse: Compound or PBS (1 x 50 mg IVT) was delivered to C57BL6 mice. Relative percentage of Malat1 RNA in the posterior of the eye (retina, choroid, sclera) to PBS-treated mice is shown at 12, 20 and 36 weeks post-single injection. Statistics: Compound-2 Malat1 levels are significantly different from NTC at 36 weeks ***, P<0.001; **** P<0.0001, respectively. PBS = phosphate buffered saline; NTC= chemistry matched non-targeting control; Compound-1 and Compound-2 are stereopure MALAT1-targeting antisense oligonucleotide. NHP: Oligonucleotide or PBS (1 x 450 mg IVT) was delivered to NHP. Relative percentage of MALAT1 RNA in the retina to PBS-treated is shown at 1 week, 2 and 4 months, post-single injection. Compound-1 is a stereopure MALAT1-RNA-targeting antisense oligonucleotide. PBS NTC Compound-1 Compound-2 Time (weeks) **** *** Ophthalmology In vivo duration of effect in the NHP retina In vivo duration of effect in the mouse retina PBS Compound-1 >90% knockdown of MALAT1 maintained for 4 months
Usher Syndrome Type 2A: a progressive vision loss disorder Autosomal recessive disease characterized by hearing loss at birth and progressive vision loss beginning in adolescence or adulthood Caused by mutations in USH2A gene (72 exons) that disrupt production of usherin protein in retina, leading to degeneration of the photoreceptors No approved disease-modifying therapies ~5,000 addressable patients in US Sources: Boughman et al., 1983. J Chron Dis. 36:595-603; Seyedahmadi et al., 2004. Exp Eye Res. 79:167-173; Liu et al., 2007. Proc Natl Acad Sci USA 104:4413-4418. Oligonucleotides that promote USH2A exon 13 skipping may restore production of functional usherin protein Ophthalmology
Potent USH2A exon 13 skipping with stereopure compound in vitro and ex vivo Left: Compounds were added to Y79 cells under free-uptake conditions. Exon skipping was evaluated by Taqman assays. USH2A transcripts were normalized to SRSF9. Data are mean±s.d., n=2. Reference Compound: van Diepen et al. 2018. Antisense oligonucleotides for the treatment of eye disease. W02018055134A1. Compound-1 is a stereopure antisense oligonucleotide. Right: Whole NHP and human eyes were enucleated (n=4 and n=2, respectively) and compounds (1–20 µM) were added to extracted retinas under free-uptake conditions. Exon skipping was evaluated by 48 hrs later by Taqman assays on RNA. USH2A transcript levels were normalized to SRSF9. Data presented are mean± s.e.m. Enhanced potency over a stereorandom reference compound (in vitro) Ophthalmology Target engagement in NHP and human retinas (ex vivo) PBS NTC Compound-1 20 20 10 5 1 [µM] PBS NTC Compound-1 20 20 10 [µM] NHP Human
Allele-selective reduction of SNP-containing allele for adRP associated with Rhodopsin P23H mutation Ferrari et al., Current Genomics. 2011;12:238-249.; Reporter assays on a Wave stereopure sequence as well as a sequence described in WO2016138353A1: ASO and luciferase reporter plasmids (wild-type and mutant rhodopsin) are transfected into Cos7 cells. 48-hours later, cells are harvested, and relative luminescence is measured. Stereorandom Stereopure Collaborations in place for evaluation in transgenic human Rho P23H pig model In vivo Ophthalmology Retinitis pigmentosa (RP): group of rare, genetic eye disorders resulting in progressive photoreceptor cell death and gradual functional loss; currently no cure ~10% of US autosomal dominant RP cases are caused by the P23H mutation in the rhodopsin gene (RHO) Mutant P23H rhodopsin protein is thought to misfold and co-aggregate with wild-type rhodopsin, resulting in a gain-of-function or dominant negative effect in rod photoreceptor cells
Anticipated upcoming Wave milestones NEUROLOGY Huntington’s disease 4Q 2020: Initiate clinical development with CTA filing of SNP3 program 1Q 2021: PRECISION-HD2 data from 32 mg cohort and data from OLE trial 1Q 2021: PRECISION-HD1 data, including 32 mg cohort, and data from OLE trial ALS and FTD 4Q 2020: Initiate clinical development with CTA filing of C9orf72 program in ALS and FTD ADAR editing In vivo ADAR-mediated RNA editing data August 2020: Additional in vivo ADAR editing data at Research webcast 2020: Announce first ADAR editing program PRISM platform updates in 2020 Research webcast to be held August 25 ü ALS: Amyotrophic lateral sclerosis; FTD: Frontotemporal dementia; CTA: clinical trial application; OLE: open-label extension
Realizing a brighter future for people affected by genetic diseases For more information: Kate Rausch, Investor Relations krausch@wavelifesci.com 617.949.4827