Cryobank OC provides high-quality semen quality checks using state-of-the-art onsite laboratories. Our team of expert andrologists is highly qualified and trained to perform swift and precise analyses of sperm samples, delivering essential and valuable information to our patients.
A semen quality check is a vital test that evaluates the health and quality of a man's sperm. This comprehensive test involves examining your semen sample in our laboratory to assess factors such as sperm count, motility, morphology, and other parameters. The results of this analysis offer valuable insights into your fertility potential and help determine appropriate fertility treatment options if necessary. When scheduling your semen quality check, you will receive recommendations to observe 2-5 days of abstinence before the test. Cryobank OC provides private collection rooms for your convenience. Our friendly staff will be available to address any questions you may have as you prepare for the analysis, and we are committed to ensuring your comfort throughout the process.

Sperm count refers to the number of sperm present in one milliliter of semen, and a low sperm count can indicate fertility issues. According to the latest World Health Organization (WHO) guidelines, the average sperm concentration should be at least 15 million sperm cells per milliliter of semen.
The sperm count is crucial for fertility as it directly impacts the likelihood of successful fertilization. A higher sperm count increases the chances of fertilization during sexual intercourse or assisted reproductive technologies such as IVF, IUI, and ICI. Low sperm counts (oligospermia) or the absence of sperm in semen (azoospermia) can significantly contribute to male infertility.
Volume measures the total amount of semen released during ejaculation. When conducting a semen quality check, volume is crucial in evaluating male fertility. The volume of semen in an ejaculate offers valuable insights into the health and effectiveness of the accessory sex glands, such as the prostate and seminal vesicles, which contribute fluids to the ejaculate.
After collecting a sample, the semen volume is measured by transferring it into a graduated cylinder to determine the amount of liquid present. This measurement is taken after the sample has liquefied, typically within 30 minutes of ejaculation.
Low semen volume, also known as hypospermia, can be caused by incomplete collection, retrograde ejaculation (where semen flows backward into the bladder), or problems with the accessory glands.
Hyperspermia, which is an unusually high volume of semen, is a less common occurrence that can be caused by prolonged abstinence from ejaculation or other rare conditions.
If irregularities are detected in the volume or other parameters (such as sperm count, motility, and morphology), additional testing may be required to identify any underlying conditions.
The pH level of semen plays a crucial role in male fertility. Typically, semen has a slightly alkaline pH, ranging from 7.2 to 8.0. This alkaline environment is essential for several reasons:
The natural pH of the vaginal environment is typically around 3.8 to 4.5, creating an acidic environment. However, the alkalinity of semen serves to neutralize this acidity, providing a safer passage for sperm to travel through the female reproductive tract.
Sperm motility, the ability of sperm to move effectively, is crucial for fertility. Maintaining an optimal pH level is key to ensuring high sperm motility, which in turn increases the likelihood of successful fertilization by enabling sperm to reach and penetrate the egg.
The pH levels in the female reproductive tract can impact the lifespan of sperm. Maintaining an optimal semen pH is crucial for ensuring that sperm stay viable for longer periods, ultimately increasing the chances of successful fertilization.
An abnormal pH level in semen can have detrimental effects on male fertility in multiple ways:
When semen is too acidic, it can negatively impact the function and survival of sperm. Acidic conditions can harm sperm cells and hinder their ability to move, ultimately decreasing fertility.
Although less common, excessively alkaline semen can also pose a problem. It could be a sign of an infection or another underlying medical condition that may affect the health and function of sperm.
Semen viscosity is a measure of the thickness or fluidity of semen. When conducting a semen quality check, semen viscosity is one of the factors evaluated. Ideally, normal semen should have a viscosity comparable to water, allowing sperm to move easily. However, if the semen is too thick or viscous, it can impede sperm motility and make it challenging for sperm to navigate through the female reproductive tract.
Following ejaculation, semen undergoes a process of initial coagulation followed by liquefaction. Typically, semen should liquefy within 20-30 minutes after ejaculation. We will assess the ease with which the semen drips from a spoon or its ability to flow through a pipette.
A more quantitative approach involves using a syringe or pipette. A small amount of liquefied semen is drawn into the instrument and then released. The ease of flow, or lack thereof, indicates its viscosity.
For more specialized cases, a viscometer is used to precisely measure the viscosity of semen. This instrument provides an exact measurement of the fluid's resistance to flow.
Semen that flows easily or drips in single drops from a spoon or through a pipette.
Semen that flows slowly, forms threads, or does not flow at all may indicate potential fertility issues.
Highly viscous semen can be treated depending on the underlying cause, which might include infections, dehydration, or prolonged abstinence from ejaculation. Addressing these factors can help reduce viscosity and potentially improve fertility outcomes.
Round cells in a semen quality check refer to non-sperm cells that are typically round in shape. These can include white blood cells (leukocytes), immature sperm cells (spermatogenic cells), and other cell types that may be present in the semen. The presence of round cells is significant because it can indicate various conditions or issues related to male fertility.
An elevated presence of white blood cells (leukocytospermia) in semen may signal an infection or inflammation in the male reproductive system. This issue can negatively impact sperm function and reduce fertility.
The detection of immature sperm cells within the round cells can offer insights into spermatogenesis (sperm production). Unusual quantities may indicate problems with sperm development or maturation.
Examining the types and amounts of round cells provides valuable insights into the overall health and quality of semen, playing a crucial role in assessing male fertility.
This analysis is a component of a detailed evaluation that includes sperm concentration, motility, morphology, ejaculate volume, and various biochemical markers. Such a comprehensive assessment aids in diagnosing reproductive issues and determining suitable treatments or interventions for male fertility problems.
Sperm concentration, commonly known as sperm count, is a vital factor examined in semen quality checks. The evaluation of sperm concentration entails various steps and methods, and its role in determining fertility status is substantial.
Sperm concentration and sperm count are terms used in semen analysis for male fertility assessment, but they denote different measurements. Sperm count refers to the total number of sperm in the entire ejaculate, calculated by multiplying sperm concentration by ejaculate volume. For instance, if a man has a sperm concentration of 20 million sperm per milliliter and an ejaculate volume of 3 milliliters, his total sperm count would be 60 million (20 million x 3 ml).
Sperm concentration, also referred to as sperm density, measures the number of sperm present per milliliter (ml) of semen, indicating the concentration of sperm in each milliliter of the ejaculate. This measurement is critical for fertility assessment as a lower-than-normal concentration may indicate potential fertility issues.
Following collection, the semen sample undergoes a process of liquefaction at room temperature, typically for 20-30 minutes. Initially gel-like, semen needs to transform into a liquid state to ensure an accurate assessment.
The specimen is softly blended to ensure uniform distribution of sperm within the fluid.
Based on the sperm concentration, the sample might require dilution with a buffered solution to facilitate easier and more precise counting.
A small amount of the diluted semen is applied onto a specialized glass slide known as a hemocytometer, featuring a grid pattern that aids in cell counting under a microscope.
The hemocytometer containing the sample is positioned under a microscope. The technician counts the sperm on multiple grids to obtain an average count.
The technician will then multiply the average count per grid square by dilution and volume factors to determine the sperm concentration per milliliter of semen.
As per the World Health Organization (WHO), a typical sperm concentration is a minimum of 15 million per milliliter of semen. Concentrations below this level are considered lower than normal and may warrant additional investigation or intervention.
Examining sperm concentration in semen analysis offers vital insights into male reproductive health and fertility potential, informing both diagnosis and treatment choices for couples seeking to conceive.
Sperm motility refers to the ability of sperm to move effectively. It is vital for fertility as sperm must navigate from the vagina to the uterus and up to the fallopian tubes for fertilization to take place. Effective movement aids sperm in reaching and fertilizing the egg.
Progressive motility describes sperm moving predominantly in a straight line or large circular motions.
Non-progressive motility characterizes sperm that exhibit minimal forward movement or move in tight circular patterns.
To have normal sperm motility, at least 40% of a man's sperm should demonstrate progressive motility. Increased sperm motility enhances the likelihood of sperm reaching and fertilizing an egg, essential for natural conception.
Poor sperm motility, known as asthenozoospermia, is a prevalent cause of male infertility. Factors contributing to poor motility include genetic predispositions, lifestyle factors like smoking, alcohol consumption, and diet, environmental influences, and certain medical conditions.
Enhancing sperm motility may involve lifestyle adjustments, medical interventions to address underlying issues, or assisted reproductive technologies.
Sperm vitality indicates how many of the sperm cells in a semen sample are alive. This is important for determining if a man can successfully fertilize an egg. Sperm vitality is different from sperm motility, which measures how many sperm are moving. A sperm cell can be alive but not moving, and vice versa.
Samples with a larger percentage of live sperm are more likely to successfully fertilize an egg since only live sperm can achieve this.
Vitality testing becomes valuable when semen analysis indicates low sperm motility. It assists in distinguishing between live and dead non-motile sperm. This insight can guide decisions regarding suitable fertility treatments or interventions.
Understanding the vitality of sperm aids embryologists in selecting the most viable sperm for use in assisted reproductive technology (ART) procedures like in vitro fertilization (IVF) or intracytoplasmic sperm injection (ICSI), thereby enhancing the likelihood of success.
Reduced vitality may suggest underlying health concerns, including infections, hormonal imbalances, exposure to toxins, or lifestyle factors that could affect sperm health.
Sperm vitality testing usually employs staining methods, where live and dead sperm are distinguished based on their capacity to absorb specific dyes. Live cells repel certain dyes because of intact cell membranes, while dead cells do not.
Sperm progression describes the sperm's ability to effectively navigate the female reproductive system to reach and fertilize an egg. This movement, also known as sperm motility, is crucial to male fertility. Sperm motility encompasses both the percentage of actively moving sperm (motility rate) and the quality of their movement (kinematics), including factors such as straight-line velocity, curvilinear velocity, amplitude of lateral head displacement, beat-cross frequency, and linearity.
Sperm progression and sperm motility are related terms in a semen analysis to evaluate the ability of sperm to achieve fertilization. However, they refer to slightly different factors of sperm movement.
Motility refers to the overall movement of sperm cells, describing their ability to swim. Sperm motility is categorized based on how effectively sperm can move.
— Progressive motility (PR), where sperm move actively, linearly, or in a large circle
— Non-progressive motility (NP), where sperm move but not in a straight line, such as in tight circles
— Immotile (IM), where sperm do not move at all.
Progression describes how well sperm can move in a straight line or a big circle. This is important for successful conception because it helps the sperm find and fertilize the egg. We check for progression by examining how well the sperm can move forward. While sperm movement includes all types of motion (forward, non-linear, or none at all), sperm progression specifically means moving forward in a way that is likely to result in fertilization.
Sperm morphology includes the shape, size, and overall structure of sperm cells. Along with other parameters, it is a crucial factor in evaluating a male's fertility potential.
The morphology and structure of sperm play a crucial role in its ability to navigate and reach the egg for fertilization. Sperm with abnormal shapes may encounter challenges in attaching to and penetrating the egg's outer layers.
A normal sperm shape signifies robust semen and optimal testicular function. On the other hand, irregular sperm shape may suggest potential health concerns, including genetic abnormalities, infections, or exposure to harmful substances.
Research indicates that the shape of sperm can predict success in in vitro fertilization (IVF) procedures. A higher percentage of normally shaped sperm is typically linked to higher fertilization rates.
The criteria for normal sperm morphology include a smooth oval head, a well-defined acrosomal region covering 40-70% of the head, no visible defects in the mid-piece or tail, and specific size specifications. Even minor deviations from these standards can significantly impact fertility.
Specialized staining techniques are used to determine sperm morphology, enabling technicians to observe and measure the detailed structure of sperm under a microscope.
This specimen is collected and analyzed within one hour of ejaculation. A Raw Sample is in its purest form and has not been subjected to any further processing.
Sample after Post-Processing - This sample has undergone laboratory processing to decrease the presence of non-motile or "dead cells" and other contaminants, including round, red, and white blood cells.
Thawed Sample - This specimen has completed a full laboratory process and has been cryogenically frozen. The sample is then thawed to a liquid state and reanalyzed. This process will show how effectively your specimen maintains its integrity and viability during cryogenic storage.
BASIC SEMEN QUALITY CHECK
Raw Sample Analysis Only
COMPLETE SEMEN QUALITY CHECK
You will be asked to provide a sample in a private room specifically designated for this purpose. Each room is equipped with a flat-screen TV for your convenience. You are also welcome to bring along any reading materials, laptops, or mobile phones if you prefer to use your own content.
Cryobank OC only allows for the analysis of specimens that are produced within our facility. Sperm cells start to degrade and die when exposed to air outside of the body, so by keeping samples in our office, we can ensure the most accurate and dependable results for our clients.
Progression Grades indicate the speed of progressively motile sperm cells.
A "0" indicates there is an absence of forward progression.
A "1 – 1.5" indicates poor movement and forward progression that is weak or lethargic.
A "2.0 – 2.5" indicates some forward progression with moderate movement.
A "3.0 – 3.5" indicates good movement and absolute forward progression.
A "4.0" indicates excellent movement and powerful rapid forward progression.
There are numerous factors that can affect the health of sperm. These factors encompass lifestyle and health decisions, environmental influences, and medical issues. Some of the most prevalent factors include the use of drugs, alcohol, and tobacco, excessive heat exposure to the testicles, stress, and weight problems. Additionally, exposure to harmful chemicals, heavy metals, and radiation (including X-rays) can also have an impact. Medical conditions such as testicular cancer, hormone imbalances, and genetic disorders can also influence sperm health, as can certain medications.
There are numerous ways for men to improve the health of their sperm. These methods include keeping the testicles cool, staying properly hydrated, limiting alcohol consumption, quitting smoking, reducing stress, engaging in regular exercise, and taking supplements such as Vitamin C, Vitamin D, Vitamin E, Zinc, D-aspartic acid, and Folic Acid. By incorporating these healthy habits into their lifestyle, men can optimize their reproductive health and enhance their likelihood of fathering healthy offspring.
Absolutely! We are able to collect, process, store, and distribute sperm for personal storage needs.