Abstract: A method for making a permanently wettable material is disclosed. The method includes selecting a plurality of non-polar polymer fibers (12) wherein each fiber has a surface (16), depositing a hydrophilic polymer mixture (14) on the non-polar polymer fiber surface to form a shell. The hydrophilic polymer mixture (14) includes a cross-linkable and graftable epoxy-containing polymer, such as, poly(glycidyl methacrylate-co-ethylene glycol methacrylate) copolymer (PGMA-co-POEGMA), a high weight average molecular weight polyethylene glycol (PEG), and a surfactant. A permanently wettable material is also disclosed that includes a non-polar polymer-based web (10) having fibers (12) with a surface (16). A hydrophilic polymer mixture (14) forms a shell on the non-polar polymer fiber surface (16). The hydrophilic polymer mixture (14) includes a poly(glycidyl methacrylate-co-ethylene glycol methacrylate) copolymer (PGMA-co-POEGMA), a high weight average molecular weight polyethylene glycol (PEG), and a surfactant.

Abstract: A method of making an absorbent structure having a three-dimensional topography includes placing at least a portion of the absorbent structure between opposed mold surfaces. At least one of the mold surfaces has a three-dimensional topography. The three-dimensional topography of the mold surface is imparted onto the absorbent structure so that the absorbent structure has a three-dimensional topography corresponding to the three-dimensional topography of the mold surface.

Abstract: A method of making an absorbent structure having a three-dimensional topography includes placing at least a portion of the absorbent structure between opposed mold surfaces. At least one of the mold surfaces has a three-dimensional topography. The three-dimensional topography of the mold surface is imparted onto the absorbent structure so that the absorbent structure has a three-dimensional topography corresponding to the three-dimensional topography of the mold surface.

Abstract: A method of making an absorbent structure having a three-dimensional topography includes placing at least a portion of the absorbent structure between opposed mold surfaces. At least one of the mold surfaces has a three-dimensional topography. The three-dimensional topography of the mold surface is imparted onto the absorbent structure so that the absorbent structure has a three-dimensional topography corresponding to the three-dimensional topography of the mold surface.

Abstract: A method of making an absorbent structure having a three-dimensional topography includes placing at least a portion of the absorbent structure between opposed mold surfaces. At least one of the mold surfaces has a three-dimensional topography. The three-dimensional topography of the mold surface is imparted onto the absorbent structure so that the absorbent structure has a three-dimensional topography corresponding to the three-dimensional topography of the mold surface.

Abstract: Predicting thermal strain and providing a visual representation of the predicted thermal strain on a subject. A computerized model combines subject data, fabric data, and environmental conditions to simulate the thermal comfort of the subject wearing a plurality of fabric layers over time. The visual representation indicates the simulated thermal comfort on an image of the subject with the plurality of fabric layers. A user interface enables a user to modify or define the input data to compare the predicted thermal comfort of the subject wearing different garments under the same working conditions.

Abstract: The present invention provides a device for non-invasive monitoring thermal stress of a user. The device is capable of monitoring the internal body temperature and changes in the internal body temperature of a user. Also, the device is capable of alerting a user when the user is in danger of thermal stress.

Abstract: A method of making an absorbent structure having a three-dimensional topography includes placing at least a portion of the absorbent structure between opposed mold surfaces. At least one of the mold surfaces has a three-dimensional topography. The three-dimensional topography of the mold surface is imparted onto the absorbent structure so that the absorbent structure has a three-dimensional topography corresponding to the three-dimensional topography of the mold surface.

Abstract: An absorbent structure having a longitudinal axis, a lateral axis, a z-direction axis normal to the longitudinal and lateral axes, longitudinally opposite ends and laterally opposite side edges. An upper surface of the absorbent structure has a three-dimensional topography relative to the longitudinal and lateral axes and defines a plurality of peaks and valleys of the upper surface relative to the z-direction. A lower surface of the absorbent structure has a three-dimensional topography relative to the longitudinal and lateral axes and defines a plurality of the peaks and valleys of the lower surface relative to the z-direction. The absorbent structure has a projected area as determined by a Topography Analysis Method, and the upper surface of the absorbent structure has a vertical area as determined by the Topography Analysis Method of at least about 0.1 cm2 per 1.0 cm2 projected area of the absorbent structure.

Abstract: Embodiments of the invention provide methods and systems for determining hydration of an article and/or a person. The physical and/or electrical properties of a device in the absorbent article may be altered by hydration received in the absorbent article. The alteration of the physical or electrical properties may indicate the amount of hydration in the absorbent article. Furthermore, a time period for receiving the hydration in the absorbent article may also be determined. The hydration of the person may be determined based on a fluid output rate from the person computed using the amount of hydration output from the person and the time period for receiving the hydration.

Abstract: Modeling a plurality of fabric layers on a subject to predict thermal strain. The computerized model combines subject data, fabric data, and environmental conditions to simulate the thermal comfort of the subject over time. In an embodiment, a user interface enables a user to modify or define the input data to compare the predicted thermal comfort of different garments under the same working conditions.

Abstract: The present invention provides a device for non-invasive monitoring thermal stress of a user. The device is capable of monitoring the internal body temperature and changes in the internal body temperature of a user. Also, the device is capable of alerting a user when the user is in danger of thermal stress.

Abstract: A method and device for monitoring thermal stress in a user is described. The device is designed to include a material having specific thermodynamic properties and physical dimensions defined as a function of those thermodynamic properties. A system for thermal stress monitoring including a thermal stress monitoring device configured within a garment is also described.

Abstract: A method and device for monitoring thermal stress in a user is described. The device is designed to include a material having specific thermodynamic properties and physical dimensions defined as a function of those thermodynamic properties. A system for thermal stress monitoring including a thermal stress monitoring device configured within a garment is also described.

Abstract: Modeling a plurality of fabric layers on a subject to predict thermal strain. The computerized model combines subject data, fabric data, and environmental conditions to simulate the thermal comfort of the subject over time. In an embodiment, a user interface enables a user to modify or define the input data to compare the predicted thermal comfort of different garments under the same working conditions.

Abstract: Predicting thermal strain and providing a visual representation of the predicted thermal strain on a subject. A computerized model combines subject data, fabric data, and environmental conditions to simulate the thermal comfort of the subject wearing a plurality of fabric layers over time. The visual representation indicates the simulated thermal comfort on an image of the subject with the plurality of fabric layers. A user interface enables a user to modify or define the input data to compare the predicted thermal comfort of the subject wearing different garments under the same working conditions.

Abstract: Embodiments of the invention provide methods and systems for determining hydration of an article and/or a person. The physical and/or electrical properties of a device in the absorbent article may be altered by hydration received in the absorbent article. The alteration of the physical or electrical properties may indicate the amount of hydration in the absorbent article. Furthermore, a time period for receiving the hydration in the absorbent article may also be determined. The hydration of the person may be determined based on a fluid output rate from the person computed using the amount of hydration output from the person and the time period for receiving the hydration.

Abstract: An absorbent structure having a longitudinal axis, a lateral axis, a z-direction axis normal to the longitudinal and lateral axes, longitudinally opposite ends and laterally opposite side edges. An upper surface of the absorbent structure has a three-dimensional topography relative to the longitudinal and lateral axes and defines a plurality of peaks and valleys of the upper surface relative to the z-direction. A lower surface of the absorbent structure has a three-dimensional topography relative to the longitudinal and lateral axes and defines a plurality of the peaks and valleys of the lower surface relative to the z-direction. The absorbent structure has a projected area as determined by a Topography Analysis Method, and the upper surface of the absorbent structure has a vertical area as determined by the Topography Analysis Method of at least about 0.1 cm2 per 1.0 cm2 projected area of the absorbent structure.

Abstract: An absorbent garment having a fastener assembly with enhanced flexibility is obtained by providing fastener assemblies with at least one, and preferably a plurality of slits. The slits may have linear portions, curved portion or combination thereof. The degree of flexibility may be varied by the number, type, position and orientation of the slits.

Abstract: An absorbent garment having an absorbent core with zones of enhanced absorbency is described. The zones of enhanced absorbency are formed by selective transverse folding of the absorbent core material. Customization of positioning and configuration of the folds facilitates achieving a high distribution index value and accommodating specialized requirements of specific user groups such as male and female users for example.