Claims Analysis
Total Claims: 10
Claim 1
Independent Claim
164 words
A biological signal detector, comprising: means for obtaining an electrical representation of a plurality of biological signals related to the operation of a human heart, each said signal comprising a direct current component, an alternating current component at a first frequency, and an alternating current noise signal at a second frequency, said second frequency being substantially higher than said first frequency, said electrical representation of each of said biological signals being defined by a plurality of pulse amplitude signals having predetermined time intervals; means for combining said pulse amplitude signals to produce a multiplexed signal comprising an ordered succession of pulses representing each of said biological signals; and means for demultiplexing said multiplexed signal to obtain a representation of each of said respective biological signals, comprising means for storing a value corresponding to a predetermined portion of the amplitude of the individual pulse amplitude signals during each said time intervals, said means for storing being nonresponsive to said noise signal at said second frequency.
Claim 2
Dependent Claim
164 words
A biological signal detector, comprising: means for obtaining an electrical representation of a plurality of biological signals related to the operation of a human heart, each said signal comprising a direct current component, an alternating current component at a first frequency, and an alternating current noise signal at a second frequency, said second frequency being substantially higher than said first frequency, said electrical representation of each of said biological signals being defined by a plurality of pulse amplitude signals having predetermined time intervals; means for combining said pulse amplitude signals to produce a multiplexed signal comprising an ordered succession of pulses representing each of said biological signals; and means for demultiplexing said multiplexed signal to obtain a representation of each of said respective biological signals, comprising means for storing a value corresponding to a predetermined portion of the amplitude of the individual pulse amplitude signals during each said time intervals, said means for storing being nonresponsive to said noise signal at said second frequency.
Claim 3
Dependent Claim
21 words
The detector according to claim 1, said time intervals of said individual pulse amplitude signals being between 10 and 100 microseconds.
Claim 4
Dependent Claim
53 words
The detector according to claim 2, said means for storing said portion of said amplitude of said pulse signals comprising a storage network defined by a resistor and a capacitor, said resistor and capacitor having an RC constant significantly longer than the time interval during which said individual pulse amplitude signals are measured.
Claim 5
Dependent Claim
22 words
The detector according to claim 3, said storage network defined by said RC network having a time constant of approximately 5 milliseconds.
Claim 6
Independent Claim
166 words
A method for detecting biological signals, comprising the steps of: obtaining an electrical representation of a plurality of biological signals related to the operation of a human heart, each said signal comprising a direct current component, an alternating current component at a first frequency, and an alternating current noise signal at a second frequency, said second frequency being substantially higher than said first frequency, said electrical representation of each of said biological signals being defined by a plurality of pulse amplitude signals having predetermined time intervals; combining said pulse amplitude signals to produce a multiplexed signal comprising an ordered succession of pulses representing each of said biological signals; demultiplexing said multiplexed signal to obtain a representation of each of said respective biological signals, comprising the steps of storing in a storage network a value corresponding to a predetermined portion of the amplitude of the individual pulse amplitude signals during each said time intervals, said storage network being nonresponsive to said noise signal at said second frequency.
Claim 7
Independent Claim
166 words
A method for detecting biological signals, comprising the steps of: obtaining an electrical representation of a plurality of biological signals related to the operation of a human heart, each said signal comprising a direct current component, an alternating current component at a first frequency, and an alternating current noise signal at a second frequency, said second frequency being substantially higher than said first frequency, said electrical representation of each of said biological signals being defined by a plurality of pulse amplitude signals having predetermined time intervals; combining said pulse amplitude signals to produce a multiplexed signal comprising an ordered succession of pulses representing each of said biological signals; demultiplexing said multiplexed signal to obtain a representation of each of said respective biological signals, comprising the steps of storing in a storage network a value corresponding to a predetermined portion of the amplitude of the individual pulse amplitude signals during each said time intervals, said storage network being nonresponsive to said noise signal at said second frequency.
Claim 8
Dependent Claim
21 words
The method according to claim 5, said time intervals of said individual pulse amplitude signals being between 10 and 100 microseconds.
Claim 9
Dependent Claim
39 words
The method according to claim 6, said storage network defined by a resistor and a capacitor, said resistor and capacitor having an RC constant significantly longer than the time interval during which said individual pulse amplitude signals are measured.
Claim 10
Dependent Claim
22 words
The method according to claim 7, said storage network defined by said RC network having a time constant of approximately 5 milliseconds.