Abstract: A pallet-free bulk bin container comprises an open-ended bulk bin having a frame base at one end. A pair of channel inserts is configured to be engaged with the frame base to form pallet runners. A pair of center-filler supports is configured to enclose one end of the open-ended bulk bin. The bulk bin container may be shipped in a collapsed or knocked-down state and easily assembled into a larger container for use and being disassembled for re-use.

Abstract: A shipping container convertible to a display configuration, formed from a one-piece blank of sheet material. The container comprises opposing first and second side walls and opposing front and back walls. Top and bottom flaps are foldably joined to respective upper and lower edges of the front, back, and side walls of the container. The front wall comprises outer and inner front panels foldably joined to respective ones of the first and second side walls. A clean cut front separation line extends across the front wall. A side separation line extends diagonally along each of the side walls from opposing ends of the front separation line to an upper back corner of each of the side walls, and a portion of the front wall and side walls above the respective front and side separation lines define a removable cover portion of the shipping container.

Abstract: A shipping container convertible to a display container formed from a one-piece blank of sheet material. The container comprises an inner front panel, a bottom panel, a back panel, a top panel, and an outer front panel connected in series at respective first, second, third, and fourth fold lines. Inner front side flaps joined to the inner front panel and back side flaps joined to the back panel extend along lateral sides of the container. Bottom side flaps joined to the bottom panel overlap the inner front side flaps and the back side flaps. Top side flaps joined to the top panel overlap an outer surface of at least the back side flaps. Outer front side flaps joined to the outer front panel overlap outer surfaces of the top side flaps and the bottom side flaps.

Abstract: A pallet-sized shipping and display tray includes a base portion having an interior space and opposed sides ends. The respective spaced-apart first and second vertical columns each of which is configured to be positioned in the opposed ends of the interior space of the base portion. Each of the respective first and second spaced-apart vertical columns includes two shoulder panels, two coterminous spine panels, and two arm panels all of which are foldably joined to one another. At least one deck is configured to be attached to the respective spaced-apart first and second vertical columns to form a bridge. The at least one deck includes a supporting panel having two side depending flanges and two end depending flanges all of which foldably joined to one another so as to adequately support a weight of one or more upper display trays when they are stacked upon one another.

Abstract: A floor display system comprising a base portion including a front wall having opposing first and second vertical edges, and first and second side walls extending from the vertical edges in generally perpendicular relation to the front wall. At least one side wall slot is formed in each of the first and second side walls and connected to respective front wall slot portions formed in the front wall. At least one tray is provided including a tray body connected to at least one mounting flap portion positioned in each of the side wall slots in the first and second side walls and extending into the corresponding front wall slot portions for supporting the tray body to the base portion.

Abstract: Pulps in accordance with certain embodiments include crosslinked cellulose fibers and have high brightness, reactivity, and intrinsic viscosity, and therefore can be well suited for use as a precursor in the production of low-color, high-viscosity cellulose derivatives. A method in accordance with the present technology includes forming a pulp from a cellulosic feedstock, bleaching the pulp, crosslinking cellulose fibers within the pulp while the pulp has a high consistency, and drying the pulp. Crosslinking the cellulose fibers can include exposing the fibers to a glycidyl ether crosslinker having two or more glycidyl groups and a molecular weight per epoxide within a range from 140 to 175. Another method in accordance with the present technology includes providing an aqueous suspension of pulp that includes chemical wood pulp fibers that were previously bleached and dried, crosslinking the fibers with such a glycidal ether crosslinker, and drying the pulp.

Abstract: Methods of forming crosslinked cellulose include mixing a crosslinking agent with cellulose mat fiber fragments composed of hydrogen-bonded cellulose fibers and having a solids content of about 45-95% to form a substantially homogenous mixture of non-crosslinked, individualized cellulose fibers, drying the resulting mixture to 85-100% solids, then curing the dried mixture under conditions effective to crosslink the cellulose fibers. Some of such methods may include fragmenting a cellulose fiber mat to form the mat fragments. Systems include a mixing unit (such as a high-consistency mixer) configured to form, from the mat fragments and a crosslinking agent, a substantially homogenous mixture of non-crosslinked, individualized cellulose fibers and crosslinking agent, at ambient conditions, a drying unit to dry the substantially homogenous mixture to a consistency of 85-100%, and a curing unit and to cure the crosslinking agent to form dried and cured crosslinked cellulose fibers.

Abstract: Methods of producing clean (e.g., low sulfur and metal ion content, and free of fermentation inhibitors) sugar and lignin-rich streams, and downstream conversion products, from lignocellulosic biomass, may include obtaining non-chemically pretreated, milled lignocellulosic biomass, reacting the milled lignocellulosic biomass with an enzymatic agent to produce a slurry that includes converted monomeric lignocellulosic sugars and lignin-rich residuals, and separating the slurry into a sugar stream that includes the converted monomeric lignocellulosic sugars and a lignin-rich stream that includes the lignin-rich residuals. The sugar stream, not including water, includes at least 75% monomeric lignocellulosic sugar, less than 0.20% sulfur, and less than 3.0% metal ion content, and the lignin-rich stream includes at least 35% lignin and less than 0.50% sulfur.

Abstract: Methods of producing clean (e.g., low sulfur and metal ion content, and free of fermentation inhibitors) sugar and lignin-rich streams, and downstream conversion products, from lignocellulosic biomass, may include obtaining non-chemically pretreated, milled lignocellulosic biomass, reacting the milled lignocellulosic biomass with an enzymatic agent to produce a slurry that includes converted monomeric lignocellulosic sugars and lignin-rich residuals, and separating the slurry into a sugar stream that includes the converted monomeric lignocellulosic sugars and a lignin-rich stream that includes the lignin-rich residuals. The sugar stream, not including water, includes at least 75% monomeric lignocellulosic sugar, less than 0.20% sulfur, and less than 3.0% metal ion content, and the lignin-rich stream includes at least 35% lignin and less than 0.50% sulfur.

Abstract: A shipping container convertible to a display container formed from a one-piece blank of sheet material. The container comprises an inner front panel, a bottom panel, a back panel, a top panel, and an outer front panel connected in series at respective first, second, third, and fourth fold lines. Inner front side flaps joined to the inner front panel and back side flaps joined to the back panel extend along lateral sides of the container. Bottom side flaps joined to the bottom panel overlap the inner front side flaps and the back side flaps. Top side flaps joined to the top panel overlap an outer surface of at least the back side flaps. Outer front side flaps joined to the outer front panel overlap outer surfaces of the top side flaps and the bottom side flaps.

Abstract: A multi-ply paper substrate is provided, which comprises at least two plies bonded to one another by an adhesive; a basis weight of 80-200 gsm; an internal bond of 10-180 milli-ft.-lb/sq. in. as measured by TAPPI method 541; an MD tensile of 20-300 lbf/inch width as measured by TAPPI method 494; and a CD tensile of 10-300 lbf/inch width as measured by TAPPI method 494. Methods of making and using the paper substrate, products made therefrom, and uses of the paper substrate are also provided.

Abstract: A sump base dispensing system for dispensing a flowable material includes a bulk bin container having a bottom wall and a plurality of upstanding side walls foldably joined to the bottom wall to form an interior space. One of the plurality of the side walls includes a dispensing opening. A cassette is configured to be disposed into the interior space bulk bin container and is positioned within the bottom wall of the bulk bin container. The cassette includes a product bag having a respective inlet and outlet ports used for respective filling and dispensing the flowable material from the product bag. A sump base dispensing apparatus is configured to be attached to the product bag via a dispensing fitment so as to assist in removing the flowable material residual through the dispensing fitment by gravity force.

Abstract: Methods of forming crosslinked cellulose include mixing a crosslinking agent with an aqueous mixture of cellulose fibers containing little to no excess water (e.g., solids content of 25-55%), drying the resulting mixture to 85-100% solids, then curing the dried mixture to crosslink the cellulose fibers. Systems include a mixing unit to form, from an aqueous mixture of unbonded cellulose fibers having a solids content of about 25-55% and a crosslinking agent, a substantially homogenous mixture of non-crosslinked, unbonded cellulose fibers and crosslinking agent; a drying unit to dry the substantially homogenous mixture to a consistency of 85-100%; and a curing unit and to cure the crosslinking agent to form dried and cured crosslinked cellulose fibers. Intrafiber crosslinked cellulose pulp fibers produced by such methods and/or systems have a chemical on pulp level of about 2-14% and an AFAQ capacity of at least 12.0 g/g.

Abstract: Methods of producing clean (e.g., low sulfur and metal ion content, and free of fermentation inhibitors) sugar and lignin-rich streams, and downstream conversion products, from lignocellulosic biomass, may include obtaining non-chemically pretreated, milled lignocellulosic biomass, reacting the milled lignocellulosic biomass with an enzymatic agent to produce a slurry that includes converted monomeric lignocellulosic sugars and lignin-rich residuals, and separating the slurry into a sugar stream that includes the converted monomeric lignocellulosic sugars and a lignin-rich stream that includes the lignin-rich residuals. The sugar stream, not including water, includes at least 75% monomeric lignocellulosic sugar, less than 0.20% sulfur, and less than 3.0% metal ion content, and the lignin-rich stream includes at least 35% lignin and less than 0.50% sulfur.

Abstract: A blank for making a one-piece container. The blank includes a central first section, a pair of second sections connected to the first section along a respective first longitudinal score line, and a pair of third sections, each third section connected to a second section along a respective second longitudinal score line. The second sections define side walls and end walls of the container, and the third sections define bottom flaps of the container. The first section includes a pair of top lateral flaps located on either side of a longitudinal slit that divides the blank in half. A pair of top end flaps span across opposing longitudinal ends of the top lateral flaps. Each top end flap comprises a triangular section defining a bow-tie lock connecting two halves of the blank on either side of the longitudinal slit.

Abstract: The present invention relates to a sizing composition that, when applied to paper substrate, creates a substrate, preferably suitable for inkjet printing, having increased print density, print sharpness, low HST, and/or image dry time, the substrate preferably having high brightness and reduced color-to-color bleed as well. In addition, the present invention relates to a method of reducing the HST of a paper substrate by applying the sizing composition to at least one surface thereof. Further, the application relates to methods of making and using the sizing composition, as well as methods of making and using the paper containing the sizing composition.

Abstract: A process for providing printable substrates by separately treating one or both surfaces of a paper substrate with an optical brightening agent (OBA) and a multivalent metal salt drying agent, where one or both surfaces of the paper substrate is treated with one of these two agents at the size press, and where the surface(s) is treated with the other of these two agents before or after the size press.

Abstract: Methods of producing clean (e.g., low sulfur and metal ion content, and free of fermentation inhibitors) sugar and lignin-rich streams, and downstream conversion products, from lignocellulosic biomass, may include obtaining non-chemically pretreated, milled lignocellulosic biomass, reacting the milled lignocellulosic biomass with an enzymatic agent to produce a slurry that includes converted monomeric lignocellulosic sugars and lignin-rich residuals, and separating the slurry into a sugar stream that includes the converted monomeric lignocellulosic sugars and a lignin-rich stream that includes the lignin-rich residuals. The sugar stream, not including water, includes at least 75% monomeric lignocellulosic sugar, less than 0.20% sulfur, and less than 3.0% metal ion content, and the lignin-rich stream includes at least 35% lignin and less than 0.50% sulfur.

Abstract: A floor display system comprising a base portion including a front wall having opposing first and second vertical edges, and first and second side walls extending from the vertical edges in generally perpendicular relation to the front wall. At least one side wall slot is formed in each of the first and second side walls and connected to respective front wall slot portions formed in the front wall. At least one tray is provided including a tray body connected to at least one mounting flap portion positioned in each of the side wall slots in the first and second side walls and extending into the corresponding front wall slot portions for supporting the tray body to the base portion.

Abstract: A pulp in accordance with a particular embodiment includes crosslinked cellulose fibers. The pulp can have high brightness, reactivity, and intrinsic viscosity. The pulp, therefore, can be well suited for use as a precursor in the production of low-color, high-viscosity cellulose derivatives. A method in accordance with a particular embodiment of the present technology includes forming a pulp from a cellulosic feedstock, bleaching the pulp, crosslinking cellulose fibers within the pulp while the pulp has a high consistency, and drying the pulp. The bleaching process can reduce a lignin content of the pulp to less than or equal to 0.09% by oven-dried weight of the crosslinked cellulose fibers. Crosslinking the cellulose fibers can include exposing the cellulose fibers to a glycidyl ether crosslinker having two or more glycidyl groups and a molecular weight per epoxide within a range from 140 to 175.