the invention will now be described with reference to the drawing figures , in which like reference numerals refer to like parts throughout . to improve the compliance , one can reduce the mask / interface discomfort by incremental improvements , with adaptive , customized design , new materials , minimal size , and providing an integrated chinstrap as shown below by the present invention . physiologic customization can be beneficial , as evidenced by series f ; marc , i . importance of sleep stage and body position - dependence of sleep apnea in determining benefits to auto - cpap therapy ” eur respir . j . 2001 ; 18 ( 1 ): 170 - 5 . the researchers concluded that some patients had sleep stage and body position - dependent obstruction breathing abnormalities . ultra light sensors can be used for example with wireless technology . the sensors can collect real - time data . the sensors can collect real time data with respect to oximetry , co2 , and emg for rem detection . the sensors do not have to be wireless , but can be placed in a remote position where the signal can be transmitted through either a wired or wireless method . microprocessor use real - time data to control the blower to generate the minimum therapeutic inspiratory pressure needed to provide therapeutic benefit . an embodiment of the present inventive apparatus is illustrated in fig1 . an example of an embodiment of the sensor includes ultra - light miniature blower 10 being integrated into the headgear 12 that supports the patient respiratory interface 14 . nanotechnology sensors can be embedded into the headgear 12 , and / or are separately mounted and wireless connected to deliver data to the microprocessor , which is integrated into the blower 10 . the sensor is not limited to a wireless and nanotechnology sensor . any other type of sensor can be used . for example , the sensor can have a wired connection or not be a nanotechnology sensor . an integrated chinstrap 16 is provided on the headgear 12 . an in - circuit hme is included to provide head and humidity to the air delivered by the blower 10 . the hme stands for a know device of the heat and moisture exchanger . the ultra - light blower integrated into headgear provides : 1 . high speed , very light low voltage motor blower ( for example 12 volts ); 2 . cushioning material between blower unit and headgear to reduce noise and vibration ; 3 . micro processors imbedded either side to set and stabilize pressures 3 - 20 cm h2o ; 4 . transformer on bed stand ; 5 . no need for 6 foot , 22 mm tube ; and 6 . integrated nasal interface . for purposes of the example embodiment or embodiments described herein , the present invention has been disclosed mainly in terms of its application to cpap . nevertheless , it is contemplated that the present invention can be applied to any appropriate form of respiratory therapy , including cpap , vpap ( variable positive airway pressure ) and bipap ( bi - level positive airway pressure ), demand positive air pressure ( dpap ), numerous other forms of respiratory therapy , and any suitable combination thereof . as seen in fig2 - 3 , the blower 10 is shown in different views from the top and the back , respectively . referring to the block diagram of fig4 , the headgear 10 can include the microprocessor 32 being integrated into the headgear 10 . the microprocessor can be connected on a master bus 36 with volatile memory 34 used to execute the instructions for the respiratory system , and non - volatile memory 42 for storing of information . the master bus 36 can also connect the processor 32 with the blower 10 for control of the blower 10 according to the instructions within the memory 34 and 42 , and according to the feedback from the sensors 30 and 38 . the connections to the transducers or sensors 30 and 38 can be wired or wireless with the processor 32 . wireless technologies can include for example bluetooth or ieee 802 . 11 standards for example . furthermore , one or more of the sensors 30 and 38 can be also located outside of the headgear and not embedded within the headgear . the sensors 30 and 38 with give the feedback to the processor 32 for application of the system . an hme 36 can also be controlled by the processor 32 and input / output port 40 can be included for input or output of the data from the headgear 10 . the headgear is then included within the respiratory interface 14 . therefore , as seen above , the integration of the headgear with the blower and other components vastly reduces the size and increases the efficiency . therefore , the ultralight blower 10 and housing with a remote sensing capacity can include the headgear 12 integrated with the chinstrap 16 . there is also a continuous low profile of the nasal interface with the hme , and various nano - based or other type of physiological sensors can be included . fig4 is shown only as an example , the order and integration of the units can be changed . for example , as mentioned above , the sensors can be outside the headgear 10 or any other component . additional components can also be added or removed . for example , the processor 32 , and additionally the memory 34 , 42 can be integrated into the blower unit 10 itself . further , it should be evident that this disclosure is by way of example and that various changes may be made by adding , modifying or eliminating details without departing from the fair scope of the teaching contained in this disclosure . the invention is therefore not limited to particular details of this disclosure . the many features and advantages of the invention are apparent from the detailed specification , and thus , it is intended by the appended claims to cover all such features and advantages of the invention which fall within the true spirit and scope of the invention . further , since numerous modifications and variations will readily occur to those skilled in the art , it is not desired to limit the invention to the exact construction and operation illustrated and described , and accordingly , all suitable modifications and equivalents may be resorted to , falling within the scope of the invention .
a self - contained respiratory apparatus , including a blower delivering a gas , a headgear integrated with the blower to support a respiratory interface , and a sensor embedded in the headgear and mounted to deliver data to a microprocessor integrated with the blower , the blower being controlled through the response of the sensor and the control of the microprocessor to support the respiratory interface through the headgear .