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Comprehensive Carrier
Screening Test

Responsible Family Planning from today

$650

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Carriers are common, and
family history is not a predictor

Carriers are
common, and family
history is not a
predictor

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It is common for people to be carriers of at least one genetic condition. Most carriers are healthy with no family history, but they are at risk of passing on a genetic condition to their child. SZA Longevity Carrier Screening is a genetic test performed before or during pregnancy that identifies if you carry a gene with a change, or variant, that can impact your child.

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Is carrier screening
right for me?

Is carrier
screening right
for me?

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Most people do not know they are a carrier for an inherited genetic condition until they have a child with the condition. Everyone can be a carrier of a genetic condition regardless of ethnicity, family background, or family history.

Genetic carrier screening can help you and your partner learn if you are at risk of passing on a genetic condition to your child. With Horizon carrier screening, you screen for one or more genetic conditions with one simple test. Before undergoing carrier screening, it may be helpful to learn more about genetics and inheritance of genetic conditions.

Inheritance: Autosomal
Recessive Conditions

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There are different ways genetic conditions can be passed down or inherited in families. We carry two copies of most of our genes, one inherited from each of our biological parents. Some genetic conditions happen when only one gene in a pair has a change. These are called dominant genetic conditions. Szalongevity carrier screening test does not screen for dominant genetic conditions. Szalongevity carrier screening tests for genetic conditions that happen when both copies of a gene pair have a change. These are called recessive genetic conditions. A carrier of a recessive genetic condition is someone who has a change in one of the genes in a pair.

A couple can have a child with a recessive condition when both the female and the male parent are carriers of the same condition. With each pregnancy, this couple has a 25% (1 in 4) chance of having an affected child.

Autosomal recessive inheritance

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Autosomal recessive inheritance

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Inheritance:
X-Linked Conditions

Inheritance:
X-Linked
Conditions

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Male or female sex comes from the “sex chromosomes” X and Y. Females have two copies of the X chromosome. Males have one X chromosome and one Y chromosome. This means that females have two copies of each of the genes on the X chromosome and males only have one copy of these genes. Some genetic conditions are caused by changes in genes found on the X chromosome. These are called X-linked genetic conditions. Females can be carriers of X-linked conditions. Female carriers have one working copy and one non-working copy of an X-linked gene. Males are typically not carriers because they only have one X chromosome, so they are either healthy or affected.

For X-linked genetic conditions, only the female parent needs to be a carrier to be at risk of having an affected child. A carrier female parent has a 50% (1 in 2) chance of having an affected male child or carrier female child with each pregnancy.

X-Linked inheritance

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X-Linked inheritance

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What’s next if I am a carrier
for a genetic condition?

What’s next if I
am a carrier for a
genetic
condition?

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icon Patients who are planning to conceive in the future

If you are a carrier for a specific recessive condition, your partner may want to have carrier screening for the condition ordered by a healthcare professional. Your doctor or a local genetic counselor can help decide which carrier screen is best for your partner. If your partner screens positive for the same condition that you are a carrier for, different reproductive options can be considered.

If you are a carrier for an X-linked condition, you may want to speak with your doctor or a genetic counselor about your Horizon test results. Partner screening is not often recommended as a next step if you are a carrier for an X-linked condition as only the mother needs to be a carrier for the condition to pass it along to her child.

For many couples, knowing their carrier status before their baby is conceived enables them to make informed reproductive decisions that can impact their child’s future. Couples at risk for having a baby with a recessive or an X-linked condition have the opportunity to consider:

  • Natural pregnancy with or without prenatal diagnosis such as chorionic villus sampling (CVS) or amniocentesis
  • Other reproductive options such as: preimplantation genetic testing (PGT) with in vitro fertilization (IVF) to test and then transfer embryos free of the disease that both partners carry, use of a sperm or egg donor, or adoption

icon Pregnant patients

If you are a carrier for a specific recessive condition, your partner may want to have carrier screening for the condition ordered by a healthcare professional. Your doctor or a local genetic counselor can help decide which carrier test is best for your partner.

If you are a carrier for an X-linked condition, partner screening is not often recommended as a next step as only the mother needs to be a carrier for the condition to pass it along to her child.

Carrier screening during pregnancy can have life-altering benefits: It can help couples decide on prenatal diagnostic testing such as chorionic villus sampling (CVS) or amniocentesis, and if necessary, help them prepare emotionally, medically, and financially for a baby with a genetic condition.

Comprehensive
view of your genome

Comprehensive
view of your
genome

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SZA Longevity Carrier Screening Test uses whole-genome sequencing (WGS) which is a comprehensive next-generation sequencing (NGS) method for analyzing entire genomes. WGS provides a high-resolution, base-by-base view of the genome which can capture both large and small variants that might be missed with targeted approaches .

icon icon You can learn more about WES based testing here.

icon icon IMPORTANT NOTE

Genome-wide sequencing methods will allow the identification of all the variant types which could be associated with the pathogenic phenotypes. Exome sequencing is a cost-effective approach when whole-genome sequencing is not practical or necessary. If you need a basic analysis, covering the variants found only in the coding region of your genes, you can check our Whole Exome sequencing (WES) based Basic Carrier Screening Test

How it works?

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1Order your sample collection kit

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2Collect your sample as instructed

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3Fill out a Consent form provided
with your kit

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4Send sample & paperwork to SZA Longevity for processing

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5Get your report within 2 - 3 weeks

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6Share & discuss your results
with your healthcare provider

Actionable and
Well-defined Results

Actionable and
Well-defined
Results

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SZALongevity screens for genes associated with specific inherited genetic conditions, including commonly screened conditions such as cystic fibrosis, spinal muscular atrophy, fragile X syndrome, and sickle cell anemia.

Advanced technology and unmatched support make SZA Longevity unique among Carrier screening tests. The test is easy to take. Results are presented clearly, directly, and can pave the way to critical action steps.

SZA Longevity offers Comprehensive Carrier Screening Test, the most complete genetic screening test with ≥99% coverage of over 1000 genes and 1200 diseases, providing couples and physicians with the highest confidence in test results.

icon icon You can learn more about screened genes and related disorders here:
Genes Included on SZA Longevity Carrier Screening Test

icon icon Contact your local SZA Longevity representative for more information or
you can send your queries to info@szalongevity.com

icon icon References
1- Bell C.J., Dinwiddie D.L., Miller N.A. et al. Carrier testing for severe childhood recessive diseases by next-generation sequencing. Sci Transl Med 3, 65ra4 (2011).
2- Levy S, Fulton B. Choosing the right NGS approach: WGS vs. WES vs. targeted sequencing. Science/AAAS Custom Publishing Office, 30 Sept. 2020. Webinar. https://www.science.org/content/webinar/choosing-right-ngs-approach-wgs-vs-wes-vs-targeted-sequencing
1. Bell C.J., Dinwiddie D.L., Miller N.A. et al. Carrier testing for severe childhood recessive diseases by next-generation sequencing. Sci Transl Med 3, 65ra4 (2011). 2. Levy S, Fulton B. Choosing the right NGS approach: WGS vs. WES vs. targeted sequencing. Science/AAAS Custom Publishing Office, 30 Sept. 2020. Webinar. https://www.science.org/content/webinar/choosing-right-ngs-approach-wgs-vs-wes-vs-targeted-sequencing