Abstract: A patient fluid discharge monitoring method and apparatus includes at least one article configured to be worn by a patient, the article having absorbent material and a RF tag received adjacent the absorbent material. The RF tag is excited with an excitation signal and the response of the RF tag to the excitation signal is detected. The detected response of the RF tag is compared to a predetermined response. The RF tag has a first detected response when the absorbent material has no fluid therein and a second detected response when the absorbent material has fluid therein.

Abstract: A patient position monitoring apparatus and method includes an article configured to be worn by a patient. The article includes a plurality of resonators with each resonator responsive to a wireless excitation signal for causing the unique change in the excitation signal or for outputting a unique wireless response signal. The resonators are stimulated with a first wireless excitation signal when the article is being worn by a patient. The unique change in the excitation signal and /or the unique response signal of each resonator responding to the first excitation signal is determined. From the thus detected response, a signal strength of the unique change in the excitation signal and/or the unique response signal for each responding resonator is determined. From the thus determined signal strengths, the relative locations of the responding resonators with respect to each other can be determined.

Abstract: A portable computer system with an ergonomic input device is comprised of a housing having a top surface. A central processing unit is carried in the housing. A heads-up display is provided for displaying information to a user, with certain of the information being selectable by the user. The display is under the control of the central processing unit. A first rotary switch produces a first input signal for identifying the information to be selected. A second input switch produces a second input signal for selecting the identified information. Both the first and second input switches are carried on the top surface of the housing. An input interface receives the first and second input signals and encodes the information therein into an eight bit byte for input to the central processing unit. In one embodiment, the housing may be carried in a case which is worn by the user while the heads-up display is positioned proximate to the user's eye by a headband.

Abstract: A patient position monitoring apparatus and method includes an article configured to be worn by a patient. The article includes a plurality of resonators with each resonator responsive to a wireless excitation signal for causing the unique change in the excitation signal or for outputting a unique wireless response signal. The resonators are stimulated with a first wireless excitation signal when the article is being worn by a patient. The unique change in the excitation signal and /or the unique response signal of each resonator responding to the first excitation signal is determined. From the thus detected response, a signal strength of the unique change in the excitation signal and/or the unique response signal for each responding resonator is determined. From the thus determined signal strengths, the relative locations of the responding resonators with respect to each other can be determined.

Abstract: A patient fluid discharge monitoring method and apparatus includes at least one article configured to be worn by a patient, the article having absorbent material and a RF tag received adjacent the absorbent material. The RF tag is excited with an excitation signal and the response of the RF tag to the excitation signal is detected. The detected response of the RF tag is compared to a predetermined response. The RF tag has a first detected response when the absorbent material has no fluid therein and a second detected response when the absorbent material has fluid therein.