| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | 3,044 units | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |
| 2009-09-29 | Not classified | Device Design | CO2 Cryosystem thermal load may exceed the exhaust gas phase, resulting in ice formation in the exhaust valve. Should this occur, the Cryo tip may cool at a less than optimal rate, resulting in ice formation in the exhaust valve. | | 2012-04-17 |