Methods and systems of detection of presence in and delivery to location are provided. A method detects a presence of a mobile device within a perimeter of a geographic region. The method searches a database to determine whether the first mobile device is associated with any existing account. Responsive to determining that the mobile device is associated with a first account, the method searches the database to determine whether there is any pending task associated with the first account. Responsive to determining that there is a pending task associated with the first account, the method transmits a first message indicating the detection of presence of the mobile device associated with the first account. The method determines that the mobile device is at least approximately at a first location of a plurality of predefined locations within the perimeter. The method transmits information associated with the first location to the computing device.

A comb and a thermal protective glove are provided herein. In one embodiment, the comb includes: (1) a base having a top side and a bottom side, (2) a longitudinal row of teeth on the top side of the base and (3) an attacher having a coupling end connected to the bottom side of the base.

A voltage detecting glove comprises a glove liner and an outer glove shell. A conductive antenna is disposed inside the outer glove shell but separated from the glove liner by a buffer. The antenna is connected to electronic circuitry configured to sense a voltage indicative of the proximity of the antenna to an AC electric field resulting from energized AC source, and to activate an alarm if the strength of the field exceeds a preselected threshold limit.

A voltage detecting glove comprises a glove liner and an outer glove shell. A conductive antenna is disposed inside the outer glove shell but separated from the glove liner by a buffer. The antenna is connected to electronic circuitry configured to sense a voltage indicative of the proximity of the antenna to an AC electric field resulting from energized AC source, and to activate an alarm if the strength of the field exceeds a preselected threshold limit.

A construction for a glove or other article of clothing for use in hazardous environments is disclosed, comprising a first layer comprising a laminate that includes an inner layer comprising a woven, nonwoven, or knit material, an intermediate layer comprising a barrier to the passage therethrough of liquids that overlies the inner layer, and a thermal layer affixed to and overlying the intermediate layer in at least a portion of a bridge area. The thermal layer is approximately 0.30 mm thick. The construction also includes a second layer attached to and overlying the first layer to form an outer portion for the glove or other article of clothing. The first layer and the second layer combined provides a thermal protection performance (TPP) of at least approximately 75% greater than a reference combination of the first and the second layer that does not include the thermal layer.

Methods and systems of detection of presence in and delivery to location are provided. A method detects a presence of a mobile device within a perimeter of a geographic region. The method searches a database to determine whether the first mobile device is associated with any existing account. Responsive to determining that the mobile device is associated with a first account, the method searches the database to determine whether there is any pending task associated with the first account. Responsive to determining that there is a pending task associated with the first account, the method transmits a first message indicating the detection of presence of the mobile device associated with the first account. The method determines that the mobile device is at least approximately at a first location of a plurality of predefined locations within the perimeter. The method transmits information associated with the first location to the computing device.

A thermal and cut resistant glove includes a main body portion that encloses the palm and back of a user's hand, finger portions and a thumb portion. The glove is knitted as a single layer of material formed from a yarn that is a composite yarn having a core constructed of one or more core filaments and a sheath constructed of two or more filaments. The glove exhibits a temperature differential of no more than about 1.3 degrees C. when the front or rear side of the glove is positioned between a refrigerated cold source and a thermocouple after a period of 15 minutes, exhibits a cut resistance of at least about 3500 grams when measured in accordance with ASTM Standard F2992-15, Standard Test Method for Measuring Cut Resistance of Materials Used in Protective Clothing with Tomodynamometer (TDM-100), exhibits an abrasion resistance of at least 2500 cycles when measured tested in accordance with ASTM Standard D3884-07, Standard Guide for Abrasion Resistance of Textile Fabrics, exhibits a time increase of no more than about 25 percent to perform a stated task when measured in accordance with ASTM Standard F2010-10, Standard Test Method for Evaluation of Glove Effects on Wearer Hand Dexterity.

Embodiments relate generally to systems and methods for determining the temperature of an object or surface near a user, such as a firefighter, in potentially dangerous conditions. A temperature sensor configured to be attached to a personal protection equipment may comprise a standoff temperature sensor element configured to detect the temperature of a nearby object or surface; a microcontroller configured to receive sensor data from the standoff temperature sensor element and determine the sensed temperature; an indicator configured to be activated by the microcontroller when the sensed temperature is higher than a predefined threshold; and an attachment element configured to attach the sensor to a personal protection equipment worn by a user.