The technology described herein generally relates to an automated packaging apparatus and system that packages loose particles into a conical container as well as the final folded packages. More specifically, loose plant matter, such as crumbled dried leaves, are supplied to successive paper cones. The apparatus packs the crumbled leaves into the cones, closes the wide top portion of the cone into a precise shape, and then runs a quality control check to ensure that the final filled cone meets preset specifications.

Rodent bait station assemblies and methods for assembly and bundling.

A packaging adapted to contain products, which is made with an extendable plastic film and has a simplified gripping, and in which the extendable plastic film is wrapped around the products with at least one coil to form a bundle, has on its upper surface only one notch configured to provide a gripping point of the packaging for a user.

Apparatuses and methods for inspecting a pharmaceutical cylindrical containers are provided. The apparatus includes a support device, a light emitting unit, and a light receiving unit. The support device supports the pharmaceutical cylindrical container and rotates the cylindrical pharmaceutical container around a longitudinal axis. The light emitting unit has a light source that illuminates the pharmaceutical cylindrical container with a detection beam while the support device rotates the pharmaceutical cylindrical container. The light receiving unit has a camera that acquires polarization information of the detection beam.

In one aspect, an article is configured to close a first product and attach to a second product. The article includes a tag and a fastener. The tag has a perimeter. The tag includes an aperture and a first cut connecting the aperture and the perimeter. The aperture and first cut are configured to accept a portion of the first product. The fastener is connected to the tag at a joint, wherein the fastener is configured to attach to the second product.

A compressed hollow coreless roll of absorbent paper sheet produced by way of providing a roll of absorbent paper sheet by winding the sheet about a forming core member having a diameter in the range of 30 mm to 50 mm; removing the forming core member such that there is provided a hollow coreless roll of absorbent paper sheet with an axial cavity having a diameter in the range of 30 mm to 50 mm and compressing the hollow coreless roll such that, the axial cavity is substantially collapsed. The compressed hollow coreless rolls are readily re-formed into cylindrical shape. Space-saving packages of the rolls are overwrapped with tubular polymer film to provide a flexible reconfigurable package of a series of individually encased rolls. Volume reductions of about 10 to about 20%, about 14% to about 20%, 30%, 40% and more as compared with conventional products are realized.

There is provided a method of producing a packed body that does not fall off and collapse during transportation and does not cause damage to cartons and paper material locally and around which a packing film can be wound easily. A packed body production method includes a first step in which a layered body is formed by stacking cartons containing toilet paper rolls and in which an insertion section into which a fork unit of a forklift is inserted is formed at a predetermined position in the layered body, a second step in which a first packing film is wound spirally around at least side surfaces of the layered body, and a third step in which a second packing film is wound around the layered body so as to close an opening of the insertion section.

There is provided a method of producing a packed body that does not fall off and collapse during transportation and does not cause damage to cartons and paper material locally and around which a packing film can be wound easily. A packed body production method includes a first step in which a layered body is formed by stacking cartons containing toilet paper rolls and in which an insertion section into which a fork unit of a forklift is inserted is formed at a predetermined position in the layered body, a second step in which a first packing film is wound spirally around at least side surfaces of the layered body, and a third step in which a second packing film is wound around the layered body so as to close an opening of the insertion section.

There is illustrated and described a bundle (14) comprising packaging sleeves (10) and an outer packaging (15), comprising: a plurality of packaging sleeves (10) of a composite material, and an outer packaging (15) which surrounds the packaging sleeves (10), wherein each packaging sleeve (10) has a front side (12) and a rear side (13), wherein the front side (12) and the rear side (13) of each packaging sleeve (10) are separated from each other by means of folding edges (F), along which the packaging sleeve (10) is folded flat, wherein each packaging sleeve (10) has two openings which are arranged on opposite sides of the packaging sleeve (10), and wherein each packaging sleeve (10) has a longitudinal seam (11) which connects two edges of the composite material to form a circumferential packaging sleeve (10). In order to enable a space-saving, cost-effective and reliable transport of packaging sleeves (10), it is proposed that the outer packaging (15) be produced from a plastics material film (17).

In one aspect, an article includes a tag, an elastic panel, and a tab. The tag has a perimeter. The tag includes an aperture and a first cut connecting the aperture and the perimeter. The elastic panel is bonded to the tag. The tab is bonded to the elastic panel at a joint, wherein a portion of the tab is configured for insertion into the aperture.