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This chapter reviews the current limitations of CASA in routine clinical andrology and describes a path by which it could become a robust analytical technology that can be employed in accredited expert clinical andrology laboratories. Particular focus is on the need for premarketing validation by manufacturers for CASA-based semen analysis applications, as well as the impact that software differences have on the absolute values reported for sperm kinematics. Without close comparability between CASA systems it will continue to be extremely difficult to establish either decision limits or reference ranges that can be applied clinically for either diagnostic or prognostic purposes.
There is no doubt that intracytoplasmic sperm injection (ICSI) has been a major breakthrough in treating male infertility, accounting for 70–80% of all the cycles performed worldwide. Surprisingly, there were very few animal studies conducted before the first babies were born, in part because of technical challenges that were experienced in most animal systems. Technological advancements were required to develop appropriate animal models for assessing the safety of ICSI. These studies identified many cytoskeletal changes that occurred in the oocyte cytoplasm after ICSI versus natural conception or even IVF, raising concerns about the long-term health of ICSI offspring. This chapter summarizes the animal models that have contributed to our understanding of the cellular and molecular aspects of ICSI, as well as providing models to investigate both the developmental origins of adult disease and transgenerational implications as they relate to ICSI.
A complete history and physical exam is the cornerstone of the evaluation of the infertile male. The semen analysis is critical in the initial evaluation of the infertile man and to a large extent guides further work-up. Karyotype analysis and microdeletion analysis of the Y chromosome are indicated for men with severe oligospermia or azoospermia because of the common detection of genetic anomalies in men with low sperm production. Computer-assisted semen analysis (CASA) has been developed to overcome the highly subjective nature of conventional analysis of sperm morphology and quality. The post-coital test evaluates the interaction between sperm and the cervical mucus environment in the woman. In light of an abnormal post-coital test or in cases of idiopathic infertility, antisperm antibody testing may be obtained. With a thorough understanding of the proper work-up algorithm, there is less unnecessary testing, which will benefit patients both financially and emotionally.
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