Refrigerating clothes may include a clothes body and a refrigerating means having a working medium capable of changing between gas and liquid. The refrigerating means comprises a radiating surface and a refrigerating surface, between which the working medium circulates. The refrigerating surface is abutted against the clothes, and the radiating surface is arranged at one side far away from the refrigerating surface. The radiating surface absorbs thermal radiation from sunlight and provides energy for the working medium, the working medium absorbs heat on the refrigerating surface to realize cooling, and continuously circulates in the refrigerating means without need for frequent replacement.

The present invention relates to a heat shielding composite cloth (100) comprising at least one pair of layers (11, 12) movably connected to each other by one or more Shape Memory Alloy (SMA) wires (103). The invention also relates to garments incorporating such heat shielding composite cloth (100).

A multi-threat base ensemble is provided that can include a shirt and pants. The shirt and pants provide flame and chemical protection to a wearer such as a first responder. The base ensemble also includes a targeted hazard protection system providing protection to the wearer at predetermined areas and a cinching system for selectively adjusting a portion of the shirt or pants allowing the targeted hazard protection system to be selectively drawn into proximity with a body of the wearer. Areas of stretchable ventilation and selectively-actuated ventilation openings, and additional comfort and protection elements are also provided.

The invention relates to a method for the coating of a textile material, said method comprising the following steps: d) providing a coating composition comprising an aqueous solvent and an organosilicon precursor; e) impregnating the textile material with the coating composition by means of pad finishing; f) drying the impregnated textile material; characterized in that the coating composition contains no polycarboxylic acid or catalyst.

The present disclosure describes a garment comprising a mobility-enhancing pleat positioned on the upper-arm portion of a sleeve. The pleat may be configured to move between a closed position, in which an outer layer lies substantially flat against the sleeve, and an open position, in which the outer layer is configured to provide the upper-arm portion of the sleeve with an increased surface area. Due to the increased surface area, the wearer is not restricted when reaching forward or upward and the sleeve is prevented from riding up so as to expose the wrists or lower arms of the wearer. Moreover, when the pleat is in an open position, the interior of the garment is not exposed. Accordingly, the pleat will not compromise a fire-resistant garment.

A survival helmet device for use in combination with a survival suit includes a helmet, inhale and exhale control valves, and at least one inflatable air cavity pocket secured to the survival suit for selectively controlling the air supply and buoyancy of the survival helmet device and the survival suit.

The present invention relates to a heat shielding composite cloth (100) comprising at least one pair of layers (11, 12) movably connected to each other by one or more Shape Memory Alloy (SMA) wires (103). The invention also relates to garments incorporating such heat shielding composite cloth (100).

A protective garment comprising a hood with a face area, the face area provided with an elastomeric interface having an opening for engaging and demountably sealing a full-face mask or full-face respirator to the hood, the opening having a forehead edge and the chin edge that are both incurvate edges with respect to the center of the opening, and two cheek edges that are excurvate edges with respect to the center of the opening; the opening further having a centerline horizontal dimension between the first and second cheek edges and a centerline vertical dimension between the forehead edge and the chin edge; the centerline horizontal dimension to centerline vertical dimension aspect ratio being 1.5 or greater.

This invention concerns a disposable protective garment comprising a protective fabric, the garment being provided with at least one continuous line of flexible sealing material extending from the neck opening to at least one other opening in the garment, the continuous line of sealing material forming a liquid-impervious seal between the first and second parts of protective fabric in the garment; wherein the sealing material has a tensile strength less than the tensile strength of the protective fabric and the continuous line of flexible sealing material can be torn open by the wearer for doffing of the garment. This invention also concerns a disposable protective garment wherein the at least one continuous line of flexible sealing material extends from a torso opening to at least one pants sleeve opening,

A method is provided for predicting occurrence of a temperature rise event caused by a fire within an environment. The method comprises receiving temperature data captured by at least one temperature sensor 6, 8 for sensing an ambient temperature in the environment, processing the temperature data captured by the at least one temperature sensor in a previous window of time using a trained machine learning model 16 to determine a risk indication indicating risk of the temperature rise event occurring in a future window of time, and outputting a warning indication in dependence on the risk indication determined using the machine learning model. This is useful for providing firefighters with advance warning of dangerous temperature rises such as flashover events.