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Envita’s Advanced Genomic Analysis Provides Cancer Patients with
Targeted
Treatment Options
For the last 25 years, Envita Medical Centers in Scottsdale, Arizona has been innovating in the field of genomic
analysis to establish targeted treatment options at the cancer’s cellular level, regardless of the tumor type or
stage.
This personalized and in-depth analysis helps our expert medical team identify and fix the disruptions at the
core of your cancer, disruptions that can promote the growth and spread of disease. We don’t just manage your
disease but aim to shut it down with the goal of improving quality of life, increasing longevity, and reducing
toxicity.
At Envita, we take precision to the next level by offering patient-specific oncology options for all our
patients, unlike standard oncology where only 20% or fewer patients get access to precision options.
Why Genomic Identification is Crucial in Cancer Treatment?
In our clinical opinion, we have demonstrated time and again how genomic identification forms the bedrock of a
precision targeted cancer treatment, minimizing the chances of multidrug resistance (MDR) and a weakened immune
system, which often leads to cancer metastasis or recurrence. We custom design a unique medical blueprint for each
individual patient based on an in-depth genomic identification. This blueprint establishes a targeted approach to
care as opposed to administering standard treatments based on a patient’s tumor type and stage. A personalized
treatment plan is designed to attack each patient’s specific cancer from all possible angles, giving them an edge
over their cancer.
Genomic Analysis to Decode Cancer Triggers
When cells grow old or become damaged, they die a natural death, this process is called apoptosis, but a
disruption in this process may trigger genetic mutations, potentially causing cancer. To treat cancer at its root,
it is crucial to examine the patient’s molecular cell biology using an extensive genomic analysis. This in-depth
analysis investigates the genomics, transcriptomics, proteomics, and metabolomics of a cell, to proactively treat
your cancer.
Recurrence Estimates of Cancers Following
Standard Oncology Treatment
Cancer Type
Recurrence Rate
Cancer TypeBladder
Recurrence Rate
50% after cystectomy
Cancer TypeBreast
Recurrence Rate
50% after cystectomy
Cancer TypeColorectal
Recurrence Rate
17% after curative surgical resection with
microscopically clear margins
Recurrence Rate
10% to 13% after primary treatment; 20% to 50% after
second-line treatment
Cancer TypeKidney
Recurrence Rate
13%; 49% after complete response to tyrosine kinase
inhibitor therapy
Cancer TypeLymphoma, DLBCL (diffuse large B-cell
lymphoma)
Recurrence Rate
30% to 40%
Cancer TypeLymphoma, PTCL (peripheral T-cell
lymphoma)
Recurrence Rate
75%
Cancer TypeMelanoma
Recurrence Rate
15% to 41%, depending on stage; 87%, metastatic
disease
Cancer TypeNSCLC (non-small cell lung
cancer)
Recurrence Rate
26% after curative surgery; 27% after
chemoradiotherapy for locally advanced disease
Cancer TypeOsteosarcoma
Recurrence Rate
11%-12% local recurrence; 5%-45% metastasis
Cancer TypeOvarian
Recurrence Rate
85%
Cancer TypePancreas
Recurrence Rate
36% within 1 year after curative surgery; 38% local
recurrence after adjuvant chemotherapy; 46% distant metastasis after adjuvant chemotherapy
Cancer TypeProstate
Recurrence Rate
After prostatectomy at 10 years: 24% low-risk
disease; 40% intermediate-risk disease; 48% high-risk disease;
Cancer TypeSoft tissue sarcoma
Recurrence Rate
50% after adjuvant chemotherapy; Nearly 100% for
advanced disease;
Cancer TypeThyroid
Recurrence Rate
Up to 30% for differentiated thyroid carcinoma;
8%-14% after surgery for medullary thyroid carcinoma;
DNA-GeneGenomics
DNA alterations can affect the structure, function, and amount of the corresponding proteins produced by
the cell.
These changes can impact a cell’s behavior,
making it cancerous. Analyzing these changes helps us gauge several facets
of your specific cancer, allowing us to personalize your treatment, targeting your specific cancer
biomarkers.
Biomarkers are attributes of your specific cancer cell that provide valuable information to help
direct treatment.
miRNATranscriptomics
Transcriptomics is the study of transcriptomes (all RNAs in a living being) and their functions.
MiRNA (MicroRNA) is a non-coding RNA molecule
that functions in a wide range of mechanisms to increase or decrease the production specific proteins
or RNA. In cancer cells, the balance between miRNAs which includes tumor suppressor genes and
oncogenes, is affected, causing uncontrolled growth of the cell. We analyze the miRNA and examine
intricate details of your cell biology to select therapies to get your miRNA working properly. These
therapies can help in reducing chances of recurrence or spread of cancer.
ProteinProteomics
Proteomics is the study of proteins synthesized by the cells.
Cancer proteomics involves the
identification
and quantitative analysis of differentially expressed proteins, as
compared to healthy tissue counterparts at different stages of disease. Examining these proteins
complement the detailed
analysis of genomics and transcriptomics, helping in better understanding of the cancer cell
physiology.
MetaboliteMetabolomics
Metabolomics is the study of metabolites which provide pathways and signaling information for targeted
treatment
delivery.
It also helps us understand intrinsic factors like genomic
alterations and extrinsic factors like nutrients, drugs,
hormones, adjuvants, and the immune system which contribute to the metabolic reprogramming of cancer
cells. These
factors are important for integrative adjuvant care to be most effective.*
* Schmidt, D. R., Patel, R., Kirsch, D. G., Lewis,
C. A.,
Vander Heiden, M.
G., & Locasale, J.
W. (2021). Metabolomics
in cancer research and emerging applications in clinical oncology. CA: a cancer journal for clinicians,
71(4),
333–358.
Targeting the Vicious Ecosystem of Cancer (Altered Gene Accumulation)
A complex interplay of abnormally functioning genomes, transcriptomes, proteins, and metabolites leads to an altered
gene accumulation, which in turn creates a vicious ecosystem, causing further proliferation. Our extensive genomic
analysis helps us identify with precision the drivers of the cancer and build a comprehensive treatment strategy,
focused on addressing key factors in the development and circulation of cancer.
Following are some of the key factors in cancer growth and spread:
Understanding Your Cancer’s Microenvironment
When your cancer cells grow uncontrollably, they may accumulate together forming a lump in your tissue, which
is a
tumor. Once a tumor reaches 2mm in diameter, it can no longer sustain itself and the cells within the tumor
begin to
produce a signaling protein, known as vascular endothelial growth factor (VEGF). This growth factor stimulates
the
physiological process of angiogenesis, which is the formation of new, irregular blood vessels around the tumor
to feed
it.
With the blood supply to feed it, a tumor can grow exponentially. It eventually breaks and the tiny
circulating tumor
cells (CTCs) travel through the blood vessels to different parts of the body, spreading the cancer. This
process is
called metastasis, which is the primary cause of cancer deaths.*
*Seyfried, T. N., & Huysentruyt, L. C. (2013). On the origin of cancer metastasis.
Critical
reviews in
oncogenesis,
18(1-2), 43–73.
How we tackle it
Envita’s personalized treatment protocols, built on each patient’s genomic analysis, work to decelerate, or prevent
metastasis by addressing the microenvironment around your cancer. Our doctors can utilize antiangiogenic smart drug
technology, alongside customized integrative medicines, to silence cancerous blood vessel growth, thereby slowing the
spread of circulating cancer cells. Combining genetic targets and natural agents with comprehensive and highly
detailed
testing allows for customized medication that focuses on the patient’s specific needs, making all the difference in
care.
Microsatellite Instability
Microsatellite instabilities (MSI) are defined as, “A change that occurs in certain cells (such as cancer cells) in
which the number of repeated DNA bases in a microsatellite (a short, repeated sequence of DNA) is different from what
it
was when the microsatellite was inherited.” In other words, MSI are thought to be the result of mutations that do not
get corrected when DNA is copied inside of a cell. This allows for the continued mutation of the cancerous cells,
making
treatment extremely difficult because of constantly changing targets.
How we tackle it
Our in-depth genomic analysis helps to accurately measure the rate of these changes so we can deploy the correct
treatments to slow them down. Accurately targeting your cancer is crucial because mutational rates can be worsened by
the wrong chemotherapy selection.
Overcoming the mutational rate of the cancer is essential to improving outcomes and impacting the cancer. At Envita,
we
understand that last month’s cancer is not today’s cancer, so we have developed treatments to address each patient’s
specific microsatellite instability in real time, which helps to keep them one step ahead of their disease.
Epigenetic Influences on Mutation
Unlike genetic changes, epigenetic changes are reversible and do not change your DNA sequence, but they can
change
how
your body reads a DNA sequence. Epigenetic influences can cause mutations in proto-oncogenes, genes that
normally help
cells grow. Mutated proto-oncogenes are called oncogenes, which are a type of miRNA.
Increased levels of oncogenes in a cell can push down the levels of tumor suppressor genes, which is another
type of
miRNA. Tumor suppressor genes, as the name implies, are genes that slow down cell division and repair DNA
mistakes.
They
are also responsible for signaling apoptosis or programmed cell death.
Metastasis and tumor growth have been highly correlated with loss of tumor suppressor and oncogene
regulation.*
Cancerous cells have an abnormal balance of tumor suppression and oncogene expression.* Normally the body uses
these
genes to regulate cell division and death. When this balance is disturbed, cancerous cells can form. In time,
these
cells will work to gain a blood supply through the angiogenesis process and begin spreading throughout the
body. If
miRNA is not addressed in treatment as soon as possible, the cancer can spread and become more and more
difficult to
treat.
*Levine, A. J., & Puzio-Kuter, A. M. (2010). The control of the metabolic switch in
cancers by
oncogenes and tumor
suppressor genes. Science (New York, N.Y.), 330(6009), 1340–1344.
*Lodish H, B.A., Zipursky SL, Proto-Oncogenes and Tumor Suppressor Genes.
How we tackle it
There are thousands of different miRNA variations and Envita’s extensive genomic analysis allows for identification
of
miRNA targets through next-generation DNA sequencing.
Our customized algorithm helps us precision target the most recent mutations of each
patient’s individual cancer.
Combined with customized integrative medications, Envita’s unique precision treatment protocols aim to aggressively
downregulate oncogenes and upregulate tumor suppressor genes. This miRNA gene silencing therapy may initiate the
body's
natural defense against cancerous cells and possibly halt the growth and spread of the disease.
Controlling the growth and spread of the disease, as we shut down its drivers are the hallmarks of Envita’s
Personalized
Precision Oncology. Our extensive genomic analysis serves as the best tool that can be used to uncover each patient’s
specific cancer drivers. Knowing these factors help us design a personalized, precision-targeted treatment plan, which
aims at benefitting patients in their journey of holistic recovery.
Envita’s Ultra Analytes Liquid Biopsy goes far beyond genomics to include immunotherapy and root causes of the
cancer.
With less than 20% of all cancer patients getting watered down version of precision genomics, Envita provides
next-level
planning and detailed development to help you outperform.
Envita Precision Algorithm vs. Standard Oncology Precision Testing
Envita Medical Centers
Standard Oncology Precision Testing
RNA Transcriptome Genes
Envita Medical Centers:20,000+
Standard Oncology:Unchecked
SNV/CNV Genes
Envita Medical Centers:452
Standard Oncology:309
Rearrangements/Fusion Genes
Envita Medical Centers:51
Standard Oncology:27
Microsatellite Instability (MSI)
Envita Medical Centers:Checked
Standard Oncology:Checked
Tumor Mutation Burden (TMB)
Envita Medical Centers:Checked
Standard Oncology:Checked
BRCA 1/2
Envita Medical Centers:Checked
Standard Oncology:Checked
Immunohistochemistry
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Chemosensitivity
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Concurrent Liquid Biopsy
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Exosomal miRNA Analysis
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Circulating Tumor Cells Enumeration
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Pharmacogenomics
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Individualized Therapy Recommendation
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Carcinogenic Exposure - Root Causes
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Inflammation Markers
Envita Medical Centers:Checked
Standard Oncology:Unchecked
Metabolic Target Drivers
Envita Medical Centers:Checked
Standard Oncology:Unchecked
*Individual results may vary. Envita
makes no guarantees for outcomes.
Call Us Today If You Need Assistance, We Are Here to Help
Our specialized team including oncologists, interventional radiologists, researchers, and pharmacists leave no stone
unturned to help you gain an edge over your cancer. They relentlessly work to personalize every aspect of your
treatment
to enhance efficacy and optimize results from over 25 years of helping patients. If you or your loved ones have any
question regarding cancer, please feel free to call us at 866-830-4576 and may God bless you on your journey to
healing.
Our team is ready to help you get your life back! Please enter your contact information and a Patient Care
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