Abstract: A constant velocity joint boot assembly includes a boot-can having an axially extending main cylindrical body, a radially extending transition portion, an axially extending and generally cylindrical mounting portion. The radially extending transition portion intersects the axially extending main cylindrical body and the generally cylindrical mounting portion. A flexible boot member may be attached to an inner surface of at least two of the cylindrical body, the transition portion and the mounting portion at a coupling region. A method of forming the flexible boot member includes first forming the boot in an outwardly extending conical shape, and then rolling and/or inverting a portion of the boot so that the boot arcs inwardly upon itself and forms a diaphragm.

Abstract: A constant velocity joint boot assembly includes a boot-can having an axially extending main cylindrical body, a radially extending transition portion, an axially extending and generally cylindrical mounting portion. The radially extending transition portion intersects the axially extending main cylindrical body and the generally cylindrical mounting portion. A flexible boot member may be attached to an inner surface of at least two of the cylindrical body, the transition portion and the mounting portion at a coupling region. A method of forming the flexible boot member includes first forming the boot in an outwardly extending conical shape, and then rolling and/or inverting a portion of the boot so that the boot arcs inwardly upon itself and forms a diaphragm.

Abstract: A constant velocity joint boot assembly includes a boot-can having an axially extending main cylindrical body, a radially extending transition portion, an axially extending and generally cylindrical mounting portion. The radially extending transition portion intersects the axially extending main cylindrical body and the generally cylindrical mounting portion. A flexible boot member may be attached to an inner surface of at least two of the cylindrical body, the transition portion and the mounting portion at a coupling region.

Abstract: A constant velocity joint and a boot for a constant velocity joint are disclosed. The boot generally includes a first channel and a second channel. The first channel is in fluid communication with a joint chamber of the constant velocity joint. The first channel is also in communication with the second channel and generally allows airflow therethrough while resisting clogs from lubricant. Additionally, the second channel generally allows airflow therethrough to the atmosphere while resisting passage of foreign contaminants therethrough.

Abstract: A boot cover assembly includes a generally cylindrical axially extending can, and a generally conical axially extending boot. The can has a first end, a central portion, and a second end. The boot includes inner and outer surfaces, a first large end, a central portion, a second small end. A portion of the second end of the can and a portion of the first large end of the boot are bonded together to form a coupling region. A portion of the inner surface of the second end of the can is bonded to a mounting face formed on an inner surface of the boot. A distal end of the can is also bonded to a mounting shoulder of the boot such that two surfaces of the can are secured to two surfaces of the boot.

Abstract: A constant velocity joint and a boot for a constant velocity joint are disclosed. The boot generally includes a first channel and a second channel. The first channel is in fluid communication with a joint chamber of the constant velocity joint. The first channel is also in communication with the second channel and generally allows airflow therethrough while resisting clogs from lubricant. Additionally, the second channel generally allows airflow therethrough to the atmosphere while resisting passage of foreign contaminants therethrough.