Abstract: Various systems and methods for non-invasively monitoring and treating a medical condition of interest via transcutaneous stimulation of a target nerve are described. For instance, a subject can be monitored for improvement of a medical condition, where such improvement corresponds with a decrease in the threshold level at which a sensory or motor response is elicited in a subject upon stimulation as compared to a baseline level. Further, transcutaneous stimulation of the nerve can also treat the condition. Both monitoring and treatment can be carried out in a non-invasive manner substantially free of a painful response via electrical nerve stimulation of a target nerve, where the stimulation is delivered from an electrode placed on a non-glabrous skin surface. The electrode placement sufficiently immobilizes the target nerve such that the stimulation is effective and can be delivered in a controlled manner.

Abstract: Various systems and methods for non-invasively monitoring and treating a medical condition of interest via transcutaneous stimulation of a target nerve are described. For instance, a subject can be monitored for improvement of a medical condition, where such improvement corresponds with a decrease in the threshold level at which a sensory or motor response is elicited in a subject upon stimulation as compared to a baseline level. Further, transcutaneous stimulation of the nerve can also treat the condition. Both monitoring and treatment can be carried out in a non-invasive manner substantially free of a painful response via electrical nerve stimulation of a target nerve, where the stimulation is delivered from an electrode placed on a non-glabrous skin surface. The electrode placement sufficiently immobilizes the target nerve such that the stimulation is effective and can be delivered in a controlled manner.

Abstract: A device is provided for simulating a human skin microclimate and for measuring conditions such as temperature and humidity in the simulated microclimate. The microclimate is formed, for example, with fluids, gases and/or heat in a chamber of the device or between a surface of the device and a material disposed about the surface. In one aspect, a sensor is placed in the chamber to sense the microclimate. Methods of using the device and measuring microclimate conditions are also provided.

Abstract: An apparatus for evaluating a material is provided. In one aspect, the apparatus is an adjustable artificial arm for transmitting fluid into the material. An artificial skin, for example, is removably attached to the artificial arm, and the material is placed over the artificial skin. The fluid is insulted into the material proximate the artificial skin. The artificial skin is evaluated for wetness or dryness to prescreen the material. In another aspect, an artificial torso is provided through which fluid is transmitted and insulted into the material for evaluation.

Abstract: Methods of using an evaluation apparatus for pre-screening a material for use in an absorbent article are provided. The evaluation apparatus includes a simulated body part having a simulated skin substrate. The material is placed proximate the simulated skin substrate, and a predetermined amount of simulated physiological fluid is insulted into the material at a pre-measured location. After a predetermined time, the simulated skin substrate is removed from the body part and fluid loss measurements are taken.

Abstract: An evaluation apparatus is provided for pre-screening a material for use in an absorbent article. The evaluation apparatus includes a simulated body part having a simulated skin substrate. The material is placed on or near the simulated skin substrate, and a predetermined amount of simulated physiological fluid is insulted into the material at a pre-measured location. After a predetermined time, the simulated skin substrate is removed from the body part and fluid loss measurements are taken.

Abstract: An evaluation apparatus is provided for pre-screening a material for use in an absorbent article. The evaluation apparatus includes a simulated body part having a simulated skin substrate. The material is placed on or near the simulated skin substrate, and a predetermined amount of simulated physiological fluid is insulted into the material at a pre-measured location. After a predetermined time, the simulated skin substrate is removed from the body part and fluid loss measurements are taken.

Abstract: A device is provided for simulating a human skin microclimate and for measuring conditions such as temperature and humidity in the simulated microclimate. The microclimate is formed, for example, with fluids, gases and/or heat in a chamber of the device or between a surface of the device and a material disposed about the surface. In one aspect, a sensor is placed in the chamber to sense the microclimate. Methods of using the device and measuring microclimate conditions are also provided.

Abstract: An apparatus for evaluating a material is provided. In one aspect, the apparatus is an adjustable artificial arm for transmitting fluid into the material. An artificial skin, for example, is removably attached to the artificial arm, and the material is placed over the artificial skin. The fluid is insulted into the material proximate the artificial skin. The artificial skin is evaluated for wetness or dryness to prescreen the material. In another aspect, an artificial torso is provided through which fluid is transmitted and insulted into the material for evaluation.

Abstract: Methods of using an evaluation apparatus for pre-screening a material for use in an absorbent article are provided. The evaluation apparatus includes a simulated body part having a simulated skin substrate. The material is placed proximate the simulated skin substrate, and a predetermined amount of simulated physiological fluid is insulted into the material at a pre-measured location. After a predetermined time, the simulated skin substrate is removed from the body part and fluid loss measurements are taken.