Abstract: Disclosed are one or more proximity sensors. At least one of the proximity sensors includes a first dielectric layer, an electrically conductive layer, and an electrode. The first dielectric layer includes an inner surface and an outer surface. The electrically conductive layer is positioned proximate to one of the inner surface or the outer surface of the first dielectric layer. The electrode includes an outer surface. The outer surface of the electrode is positioned proximate the inner surface of the first dielectric layer. The outer surface of the electrode and the electrically conductive layer define a gap.

Abstract: The present invention is a system and method of pre-delivery drug identification. The system and method is implemented where drugs are being administered, such as in a hospital or clinic, and identifies the drug being administered to the patient before the drug reaches the patient. After identification, the system and method is configured to cross-reference the identified drug with the patient's prescription and allergy information, and to prevent delivery to the patient, if necessary.

Abstract: The present invention is a system and method of pre-delivery drug identification. The system and method is implemented where drugs are being administered, such as in a hospital or clinic, and identifies the drug being administered to the patient before the drug reaches the patient. The system and method may utilize a sensor used for other physiologic monitoring to identify the drug. After identification, the system and method is configured to cross-reference the identified drug with the patient's prescription and allergy information, and to prevent delivery to the patient, if necessary. The system and method also utilizes data collected from the patient with a physiological monitor or a ventilator sensor to further determine whether the drug is appropriate for the patient. The method and system may also include an override system for medical personnel. The method described may be carried out by a software application.

Abstract: An apparatus for generating a Raman signal of a test sample is disclosed. The apparatus includes a first optical path, a second optical path, a first station, and a second station. The first optical path is adapted for coupling with a radiation source that produces a test beam at the first optical path. The first station is responsive to the test beam and is adapted to house a test standard. The second station is responsive to the test beam and is adapted to house the test sample. In response to the test beam, Raman radiation from the test standard and the test sample are combined and directed to the second optical path, which is adapted for coupling with a spectrometer and a detector for producing a Raman spectrum of the test sample.