GE Healthcare and SOPHiA GENETICS to Collaborate to Match Treatments to Multimodal Patient Data and Cancer Type

On July 6, 2021 GE Healthcare and SOPHiA GENETICS reported that they have signed a letter of intent to collaborate on advancing cancer care, with the goal of better targeting and matching treatments to each patient’s genomic profile and cancer type, helping to ensure the most effective and personalized treatment (Press release, GE Healthcare, JUL 6, 2021, View Source [SID1234584628]).

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The companies aim to develop new artificial intelligence (AI)-powered analytics and workflow solutions to serve both the clinical and biopharma markets. They’ll be deploying GE Healthcare’s extensive medical imaging and monitoring capabilities and Edison platform-enabled data aggregation with the SOPHiA DDM cloud-based software-as-a-service analytics genomic insights platform and related solutions, which are available in more than 750 hospitals, laboratories and biopharma companies.

GE Healthcare has deep expertise in clinical workflows, deep learning AI algorithms for image reconstruction and image segmentation, analytics and standardization, while SOPHiA GENETICS is a pioneer in data-driven medicine. Their cloud-based software-as-a-service analytics platform uses AI and machine learning to generate actionable insights for clinicians and researchers from complex multimodal datasets. The companies aim to break down the data silos across instruments and sites that so often delay or even prevent patients from getting the most appropriate treatment both in cancer and in other diseases.

As cases of cancer continue to rise and are predicted to reach 29.5 million new cases per year by 2040,1 there is a growing demand for data-driven medicine, both for clinical practice and clinical trials. GE Healthcare is utilizing its Edison platform to integrate data from diverse sources, such as electronic health records (EHR) and radiology information systems (RIS), imaging and other medical device data. This integrated data can be used to develop and deploy AI enabled solutions to help simplify oncology patient workflows, better understand increasingly complicated clinical patient data, and compare data from patient to patient.

"The integration of genomics-based artificial intelligence into oncology workflow solutions would be a major breakthrough for integrated cancer medicine and for future clinical research, which increasingly depend on the ability to select those patients most likely to respond to new therapies," said Jan Makela, President & CEO, Imaging at GE Healthcare. "This collaboration represents another step in GE Healthcare’s vision of making precision health—more efficient and personalized care— a reality."

"By bringing together our global platform and insights-sharing network with GE Healthcare’s international reach and cutting-edge products, healthcare professionals will be able to leverage their expertise and work together for the benefit of patients all over the world. Cancer patients will be able to receive equal access to better diagnoses and treatments through secure data pooling and knowledge sharing, unlocking the promise of data-driven medicine at scale," said Jurgi Camblong, co-founder and CEO, SOPHiA GENETICS.

Next-generation sequencing (NGS) is rapidly becoming a new standard of care in cancer diagnostics, particularly as novel therapies require genomic information to be prescribed in a personalized way. Today, these sets of information and insights are often bespoke and difficult for clinicians to easily and quickly obtain and recall along the patient care journey.

Quest Diagnostics To Release Second Quarter 2021 Financial Results On July 22

On July 6, 2021 Quest Diagnostics Incorporated (NYSE: DGX), the world’s leading provider of diagnostic information services, reported that it will report second quarter 2021 financial results on Thursday, July 22, 2021, before the market opens (Press release, Quest Diagnostics, JUL 6, 2021, View Source [SID1234584613]). It will hold its quarterly conference call to discuss the results beginning at 8:30 a.m. Eastern Time on that day.

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The conference call can be accessed by dialing 888-455-0391 within the U.S. and Canada, or 773-756-0467 internationally, using the passcode: "7895081." The earnings release and live webcast will be posted on www.QuestDiagnostics.com/investor. The company suggests participants dial in approximately 10 minutes before the call.

A replay of the call may be accessed online at www.QuestDiagnostics.com/investor or by phone at 866-360-3307 for domestic callers or 203-369-0162 for international callers; no passcode is required. Telephone replays will be available from approximately 10:30 a.m. Eastern Time on July 22, 2021 until midnight Eastern Time on August 5, 2021.

Anyone listening to the call is encouraged to read the company’s periodic reports on file with the Securities and Exchange Commission, including the discussion of risk factors and historical results of operations and financial condition in those reports.

EpimAb Biotherapeutics Provides Clinical Update for EMB-02 and EMB-06

On July 6, 2021 EpimAb Biotherapeutics, a clinical stage biotech company specializing in bispecific antibodies, reported dose administration for the first patient in a Phase 1/2 clinical trial of EMB-02, a bispecific antibody targeting PD-1 and LAG-3, in patients with advanced solid tumors, as well as in a Phase 1/2 clinical trial of EMB-06, a bispecific antibody targeting B cell maturation antigen (BCMA) and cluster of differentiation 3 (CD3), in patients with recurrent and refractory multiple myeloma (Press release, EpimAb Biotherapeutics, JUL 6, 2021, View Source [SID1234584629]). The company also announced the approval of its Investigational New Drug (IND) application for EMB-02 by the Center for Drug Evaluation (CDE) of the China National Medical Products Administration (NMPA).

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"We are excited to continue the momentum of our pipeline advancement with the dosing of the first patients in Phase 1/2 trials for our two new clinical programs, EMB-02 and EMB-06, as well as the IND clearance for EMB-02 in China," said Dr. Chengbin Wu, founder and CEO of EpimAb Biotherapeutics. "This validates the power of our FIT-Ig platform to efficiently generate novel bispecific programs, as well as its broad applicability across a variety of targets, which is important as we continue to pursue promising target combinations. We look forward to advancing additional preclinical and clinical assets derived from our FIT-Ig platform as well as expanding into utilizing additional proprietary platform technologies to develop complex multi-functional molecules with unique capabilities."

"The target combination of PD-1 and LAG-3 has received industry attention recently for its potential in difficult-to-treat cancers that do not respond to standard anti-PD-1 monotherapies. Our preclinical data revealed that EMB-02 can show significant improvement in tumor models resistant to standard anti-PD-1 monotherapies," said Bin Peng, MD, Ph.D. CMO of EpimAb Biotherapeutics. "We look forward to establishing ourselves as a leader in the development of best-in-class bispecific therapeutics as we further evaluate the potential of EMB-02 in global clinical trials in the U.S., China and Australia. We are also eager to continue the advancement of EMB-06, a bispecific antibody targeting BCMA and CD3, and evaluate its potential to benefit patients with multiple myeloma."

The EMB-02 Phase 1/2 study is a multi-center, open label, multiple-dose, first in human study to assess the safety and tolerability of EMB-02 in patients with advanced solid tumors. The primary objective for the Phase 1 portion of the study is to identify the recommended Phase 2 dose (RP2D) and schedule assessed to be safe for EMB-02. Pharmacokinetics, immunogenicity, and the anti-tumor activity of EMB-02 will also be assessed. After a recommended dose for the Phase 2 portion of the trial is determined, the efficacy of EMB-02 will be evaluated in an expanded cohort at the RP2D. The trial is being conducted at two clinical trial sites in the U.S. and one in Australia. More information about this trial may be accessed at www.clinicaltrials.gov (identifier: NCT04618393).

The EMB-06 Phase 1/2, multi-center, open label, multiple-dose, first in human study is designed to assess the safety and tolerability of EMB-06 in patients with relapsed or refractory multiple myeloma. The primary objective for the study is to identify the recommended Phase 2 dose (RP2D) and schedule assessed to be safe for EMB-06. Pharmacokinetics, immunogenicity, and the anti-multiple myeloma activity of EMB-06 will also be assessed. In the Phase 1 portion of the trial, patients will receive EMB-06 once weekly at different ascending dose levels. Once the RP2D is determined, an expanded cohort will receive EMB-06 at the RP2D. The trial is being conducted at 4 clinical trial sites in Australia and is being expanded to further countries. More information about this trial may be accessed at www.clinicaltrials.gov (identifier: NCT04735575).

Caribou Biosciences Files for $100M IPO

"You know, I suppose that an IPO is conceivable one day," Caribou Biosciences CEO Rachel E. Haurwitz, PhD, told GEN in March, shortly after the developer of gene-edited cell therapies co-founded by Nobel laureate Jennifer Doudna, PhD, raised $115 million in Series C financing.

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That day came July 1, when Caribou Biosciences filed for an initial public offering. The size of the IPO has not been finalized, though Caribou included a placeholder amount of "$100 million" in its S-1 registration statement, filed with the U.S. Securities and Exchange Commission.

Caribou seeks to trade its shares on the NASDAQ Global Select Market, under the symbol CRBU.

Caribou was established in 2011 by Haurwitz, Doudna, and two other co-founders: Martin Jínek, PhD, a former postdoctoral fellow in Doudna’s lab, now at the University of Zurich, who led the seminal 2012 study leading to the Nobel Prize; and James Berger, PhD, professor in the department of biophysics and biophysical chemistry at the Johns Hopkins University School of Medicine.

That year, Caribou also became operational, which would make it the oldest CRISPR therapeutics company as far as Haurwitz recalled earlier this year. Caribou’s aim is to commercialize applications based on the nucleic acid modification capabilities found in prokaryotic CRISPR systems.

"We believe that our technology has broad potential to generate gene and cell therapies in oncology and in therapeutic areas beyond oncology, including immune cell therapies, cell therapies derived from genome-edited iPSCs, and in vivo genome-editing therapies," Caribou stated in its IPO filing.

Caribou’s statement listed four planned uses for proceeds from the IPO. One is advancing the clinical development of the company’s sole clinical-phase candidate CB-010, which targets CD19 and has PD-1 deleted by CRISPR genome editing. CB-010 is being evaluated in the Phase I ANTLER trial (NCT04637763) in patients with relapsed/refractory B cell non-Hodgkin lymphoma (B-NHL), with initial data from the study expected in 2022.

Enhanced persistence
A second use of IPO proceeds, Caribou stated, will be funding IND-enabling activities and potential launch of clinical studies for two of its other candidates, CB-011 and CB-012.

CB-011, Caribou’s second genome-edited CAR-T candidate, targets BCMA-positive tumors and is being developed for the treatment of relapsed/refractory multiple myeloma. According to Caribou, CB-011 is immunologically cloaked in order to prevent the patient’s immune system from rapidly clearing the therapy, since allogeneic cell therapies run the risk of recognition as foreign by patients’ immune systems, which then set out to kill the cell product fairly rapidly.

Caribou achieves that enhanced persistence for CB-011 in two ways. It uses genome editing to get rid of the protein beta-2 microglobulin (beta-2-M), in order to completely wipe out all class i presentation from the surface of the CAR-T. The second step is then to site specifically insert a fusion protein, beta-2-M with the antigen HLA-E, in order to prevent both the patient’s T cells and their natural killer cells from rapidly clearing the therapy.

Caribou expects to file an IND for CB-011 next year.

Caribou is also developing a third allogeneic CAR-T cell therapy, CB-012, which targets CD371 for the treatment of relapsed/refractory acute myeloid leukemia. The company expects to file an IND for CB-012 in 2023.

CB-012 uses fully human single-chain variable fragment (scFv) binders for CD371 that the company has exclusively in-licensed from Memorial Sloan Kettering Cancer Center (MSK), under an agreement announced in November 2020 and whose value was not disclosed.

The anti-CD371 scFvs were developed in the lab of Renier Brentjens, MD, PhD, at MSK in collaboration with the Tri-Institutional Therapeutic Discovery Institute (Tri-I TDI). Tri-I TDI is a nonprofit drug discovery company wholly owned by MSK, Weill Cornell Medicine, and the Rockefeller University. MSK has the sole responsibility for licensing these scFvs and related intellectual property for commercialization.

CRISPR hybrid RNA-DNA
CB-010, ‘011, and ‘012 are complex immune cell therapies all based on Caribou’s CRISPR hybrid RNA-DNA (chRDNA) guide technology—which the Bay Area company pronounces "Chardonnay." CB-010 uses chRDNA that incorporates the Cas9 enzyme, while ‘011 and all other Caribou programs use Cas12a.

ChRDNAs are highly specific RNA-DNA hybrid guides that according to the company direct substantially more precise genome editing than all-RNA guides by driving highly specific, multiplex genome editing, including gene insertion. The hybrid guides are designed to address the challenge of all-DNA guides, which fail to support editing activity, and all-RNA guides, which lead to both on- and off-target editing.

The genome-editing technologies currently used in the allogeneic cell therapy field generally have limited efficiency, specificity, and versatility for performing the multiple, precise genomic edits necessary to address insufficient persistence," Caribou stated in its IPO. "Our chRDNA technology is designed to address these genome-editing limitations and improve cell therapy activity. By applying this approach to allogeneic cell therapies, we believe we can unlock their full potential by improving upon their effectiveness and durability."

chRDNAs lead to more specific genome editing because they decrease the affinity of the CRISPR complex for the target DNA, Haurwitz told GEN Edge in March, shortly after Caribou completed its $115 million Series C convertible preferred stock financing, which generated for the company net proceeds of $108.8 million.

Among investors participating in the Series C was AbbVie Ventures, AbbVie’s corporate strategic venture capital arm. AbbVie committed $40 million in combined upfront cash and equity investment in its up-to-$340 million CAR-T therapy collaboration launched in February.

In return, AbbVie gained exclusive rights to Caribou’s next-generation Cas12a chRDNA genome editing and cell therapy technologies to develop two CAR-T cell cancer therapies against undisclosed targets. Under their collaboration, AbbVie has the option to pay a fee, also undisclosed, to expand the collaboration to include up to two more CAR-T cell therapies.

"We view this collaboration as an external recognition of the potential for our chRDNA genome-editing technology to significantly improve genome-editing specificity and efficiency," Caribou stated in its IPO filing.

According to the IPO filing, Caribou has received $30 million in upfront cash from AbbVie—part of approximately $311.2 million in net proceeds from equity financings and contract revenues received by Caribou. The figure includes approximately $150.1 million in net proceeds from equity investments; and approximately $88.4 million in net proceeds from the sale of Intellia Therapeutics common stock received under Caribou’s CRISPR-Cas9 license agreement with Intellia.

Written in iNK
Caribou also said it plans to set aside some proceeds from the IPO toward continuing research and development of its program to develop iPSC-derived allogeneic natural killer (NK) cell therapies—which the company calls iNK cell therapies—for multiple solid tumor indications. The lead candidate in that program, CB-020, is a preclinical iNK cell therapy, for which Caribou said it expects to select a cell-surface target in 2022.

"We have not yet chosen which genome-editing technology we will use to edit the iNK cells nor do we know whether such editing will be successful," Caribou disclosed. "To date, we have focused on Cas12a chRDNA editing of iPSCs and on differentiating iPSCs into iNKs."

Caribou’s filing also cited several other additional potential uses for IPO proceeds, including:
Advancement of Caribou’s genome-editing technologies
Discovery-stage research toward potential additional programs
Working capital and other general corporate purposes, including the additional costs associated with being a public company

Based in Berkeley, CA, Caribou has a staff of more than 65 employees and licensing and collaboration revenue that more than doubled last year to $12.361 million from $5.788 million in 2019. For the first quarter of this year, license and collaboration revenue dipped to $1.586 million from $1.701 million in Q1 2020.

However, Caribou has also seen a year-over-year increase in net operating losses, to $36.1 million last year from $34.3 million in 2019. This year, Caribou finished the first quarter with a net operating loss of $13.2 million, up from a net operating loss of $9.8 million in Q1 2020.

"We expect to continue to incur significant expenses and operating losses over the next several years and for the foreseeable future as we seek to advance product candidates through preclinical and clinical development, expand our research and development activities, develop new product candidates, complete preclinical studies and clinical trials, seek regulatory approval and, if we receive approval from the [FDA] or foreign regulatory authorities, commercialize our products," Caribou stated.

BofA Securities, Citigroup Global Markets, and SVB Leerink are acting as joint book-running managers for the IPO.

Celleron Therapeutics’ CXD101 shows promising clinical results in its China IND programme with partner Nuance Biotech

On July 6, 2021 Celleron Therapeutics, the UK-based company developing novel medicines for cancer patients, reported encouraging early clinical data from its Hong Kong Phase I study to develop CXD101 in patients suffering from peripheral T-cell lymphoma (PTCL), a rare type of blood cancer (Press release, Celleron, JUL 6, 2021, View Source [SID1234584614]).

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Previously, a Phase I trial in multiple tumour types conducted in the UK demonstrated that CXD101 has an excellent safety profile. A promising signal for efficacy in multiple tumour types was observed, which led to the grant of EU Orphan Drug Designation in PTCL.

The current Phase I bridging study conducted in Hong Kong is evaluating the safety and pharmacokinetics in Chinese patients with a range of tumour types which have progressed despite multiple previous chemotherapy treatments. Together with the approved Chinese IND application, the current results open the way for the roll out of a Phase II clinical trial commencing late 2021. Preliminary imaging measurements of tumour size indicated that all patients in the first cohort showed a response, with one patient demonstrating a complete clinical response.

Professor David Kerr, Chief Medical Officer of Celleron Therapeutics, commented: "This is an important step forward in the development of CXD101 for Chinese patients. We know that the drug is clinically active in a range of haematological malignancies which are resistant to conventional chemotherapy from earlier studies conducted in the UK. Even at this early stage, the pattern of response appears to be similar in the Hong Kong study. These are important and encouraging results which endorse our Chinese drug development strategy".