Designs and methods are provided for a hard armor structure comprising a symmetrical array of regularly shaped armor tiles, and a lattice structure comprising rigid cell walls surrounding each tile.

Designs and methods are provided for a hard armor structure comprising a symmetrical array of regularly shaped armor tiles, and a lattice structure comprising rigid cell walls surrounding each tile.

A first roll (20) and a second roll (40) of a roll forming device are provided with a plurality of stacked cutting blades (22, 122) and retainers (21, 121). The retainers (21, 121) pass through the stacked cutting blades (22, 122) and receive a first rotating shaft (16) and a second rotating shaft (18). Projections (21a, 121a) are formed on end portions of the retainers (21, 121). When the cutting blades (22, 122) are stacked, the projections (21a, 121a) control positioning operation of the cutting blades (22, 122). With this constitution, when the cutting blades (22, 122) are joined in a stacked state to the retainers (21, 121), the cutting blades (22, 122) in the stacking direction is controlled with the retainers (21, 121).

There is provided a metal insert for a weatherstrip seal comprising: an elongate central portion having a pair of spaced-apart lateral edges and a central longitudinal axis; at least one flap extending from one of the spaced-apart lateral edges, the at least one flap being folded at an angle relative to the elongate central portion about a folding axis generally parallel to the central longitudinal axis, the at least one flap comprising a plurality of fins spaced apart to define interstitial spaces between adjacent fins, each interstitial space comprising an inner end portion located near the central longitudinal portion and a notch extending from the inner end portion towards the central longitudinal axis and beyond the folding axis. There is also provided a weatherstrip seal including the metal insert and a method for manufacturing the metal insert.

An inductively heatable aerosol-generating article for an inductively heating aerosol-generating device is provided, including at least one aerosol-forming substrate and at least one susceptor in thermal proximity to the aerosol-forming substrate or thermal contact with the aerosol-forming substrate, the susceptor including an expanded metal sheet including a plurality of openings through the sheet. A method for manufacturing an inductively heatable aerosol-generating article is also provided. An apparatus for manufacturing a susceptor of an inductively heatable aerosol-generating article is also provided.

An inductively heatable aerosol-generating article for an inductively heating aerosol-generating device is provided, including at least one aerosol-forming substrate and at least one susceptor in thermal proximity to the aerosol-forming substrate or thermal contact with the aerosol-forming substrate, the susceptor including an expanded metal sheet including a plurality of openings through the sheet. A method for manufacturing an inductively heatable aerosol-generating article is also provided. An apparatus for manufacturing a susceptor of an inductively heatable aerosol-generating article is also provided.

The present disclosure relates to a mesh container and a method of making a mesh container that has a first and a second set of opposing side panels, a bottom panel, and a rim directed outwards from the upper edges of the side panels. At least two adjacent sides panels of the container and portion of the rim directed outwardly from the upper edge of the side panels are made from a sheet metal precursor with least one perforated and a stretched portion and unstretched metal portion. The precursor is folded so that the unstretched metal portion joins the two side panels and is bent to form the rim. A notch is cut from the edge of the unstretched metal portion where it is bent at the corner formed by the two side panels.

First and second devices for wireless sensing are provided. The first device receives, from the second device, which is in communication with the first device, a configuration for identifying a set of transmit resources of the second device that are associated with a non-line-of-sight (NLOS) link between the first device and the second device. The first device receives a signal of one or more transmit resources of the second device and identifies the one or more transmit resources of the second device, in accordance with the configuration. This limits a measurement reporting quantity and ensures a quality of the measurement reporting in connection with a multistatic sensing procedure.