B65G11/20

Conveying Arrangement
20240158175 · 2024-05-16 ·

SUMMARY

Conveyor arrangement (1), comprising a terminal chute (11, 12, . . . ), adapted to the takeover a conveyed object (9), in particular a postal parcel (9), at a takeover area (A1), in particular from an upstream feed in device (7); for transferring the conveyed object (9) at a transfer area (A3), in particular at a terminal (4); for transmitting the conveyed object (9) in a chute area (A2) from the takeover area (A1) to the transfer area (A3), wherein the terminal chute is inclined downwardly in the conveying direction (F) so that the conveyed object (9) is conveyed in a gravitationally sliding manner, in particular comprising means for reducing damage to the conveyed material.

Hot melt adhesive supply and methods associated therewith

A melter for heating and melting particulate hot melt adhesive into a liquefied form is disclosed. The melter includes a heated receiving device having an interior with an inlet configured to receive the particulate hot melt adhesive and an outlet. A flexible hopper holds a supply of the particulate hot melt adhesive and a particulate hot melt adhesive feed device allows the particulate hot melt adhesive to be directed from the flexible hopper to the inlet of the heated receiving device.

Transfer Chute to Maintain a Density of a Flow of Granular Material

The present invention relates to a transfer chute (100) for granular material, comprising a chute body defining a flow pathway (120) for granular material, a raised portion (110) having an inclined surface (111), and a splitter member (130) arranged proximal to the raised portion (110) for, in use, dividing a flow of granular material over the raised portion into first portion in first conduit (100) and a second portion in a second conduit (300). In some embodiments, a channel (150) is disposed between the first and second conduits (100; 300) to transpose a vertical arrangement of first and second portions of granular material within the chute (10). In this way, separation by particle size or density in the flow may be reversed.

Apparatus and methods for transferring fragile items at selectively variable flow rates

An apparatus for vertical transfer of whole nuts from a first elevation to a second, lower elevation includes a run extending between an entrance and an exit, and having a plurality of alternatingly arranged conveying panels between the entrance and the exit. Each conveying panel is inclined at approximately 30 degrees to horizontal and has a variable effective conveying width. The apparatus further includes arcuate turn-arounds disposed between respective conveying panels to facilitate transferring the nuts from one conveying panel to the next lower conveying panel. The variable effective conveying width is selected based on a predetermined mass flow rate of nuts such that whole nuts move along the run in a continuous stream without tumbling, and wherein each nut is in contact with adjacent nuts in its respective layer.

Apparatus and methods for transferring fragile items at selectively variable flow rates

An apparatus for vertical transfer of whole nuts from a first elevation to a second, lower elevation includes a run extending between an entrance and an exit, and having a plurality of alternatingly arranged conveying panels between the entrance and the exit. Each conveying panel is inclined at approximately 30 degrees to horizontal and has a variable effective conveying width. The apparatus further includes arcuate turn-arounds disposed between respective conveying panels to facilitate transferring the nuts from one conveying panel to the next lower conveying panel. The variable effective conveying width is selected based on a predetermined mass flow rate of nuts such that whole nuts move along the run in a continuous stream without tumbling, and wherein each nut is in contact with adjacent nuts in its respective layer.

APPARATUSES AND METHODS FOR MEASURING DUSTINESS OF A PRODUCT

A method for measuring dustiness of a product. The method can include providing the product onto a ramp. The method further can include allowing gravity to move the product down the ramp through a dam. The dam can be configured to control a mass flow rate of the product moved down the ramp. The method additionally can include measuring, by a sensor, airborne particles to determine the dustiness of the product, wherein the airborne particles are generated by the product exiting the ramp and freely falling onto a support surface. Other embodiments are disclosed.

Dew condensation prevention device for discharge chute, and particulate feeding device using same
10294030 · 2019-05-21 · ·

Provided is a dew condensation prevention device for a discharge chute. A tip end portion of the discharge chute has inverted truncated cone-shaped internal and external chutes, a space is provided between an outer surface of the internal chute and an inner surface of the external chute, and a first air discharge port that communicates with the space is provided between respective lower ends of the two chutes. A cylindrical portion having an air reservoir in the interior thereof is provided to surround an outer peripheral surface of the external chute, and by providing an opening between an inner peripheral edge of a lower surface of the cylindrical portion and the outer peripheral surface of the external chute, a second air discharge port that communicates with the air reservoir is provided. Air input pipes for introduction of dry air are connected to the external chute and the cylindrical portion, respectively.

Dew condensation prevention device for discharge chute, and particulate feeding device using same
10294030 · 2019-05-21 · ·

Provided is a dew condensation prevention device for a discharge chute. A tip end portion of the discharge chute has inverted truncated cone-shaped internal and external chutes, a space is provided between an outer surface of the internal chute and an inner surface of the external chute, and a first air discharge port that communicates with the space is provided between respective lower ends of the two chutes. A cylindrical portion having an air reservoir in the interior thereof is provided to surround an outer peripheral surface of the external chute, and by providing an opening between an inner peripheral edge of a lower surface of the cylindrical portion and the outer peripheral surface of the external chute, a second air discharge port that communicates with the air reservoir is provided. Air input pipes for introduction of dry air are connected to the external chute and the cylindrical portion, respectively.

BATTERY ALIGNING DEVICE
20190144207 · 2019-05-16 ·

A battery aligning device includes an inlet through which a first cylindrical battery is input, an outlet from which the first cylindrical battery is discharged, regulating plates constituting a slit in a path from the inlet to the outlet, and a support member which supports one end portion and the other end portion of each of the regulating plates, in the regulating plates, a length from the one end portion to the other end portion is longer than a length of the first cylindrical battery, an X-Z cross-section has a non-linear shape, in an interval between the one regulating plate and the other regulating plate, a facing interval between surfaces is larger than a diameter of the first cylindrical battery, and when a line segment having the same length as that of the first cylindrical battery is in contact with the regulating plate at two points on the X-Z cross-section, a distance between the line segment and the regulating plate is arranged at an interval smaller than the diameter of the first cylindrical battery.

PROCESSING MATERIALS
20190135541 · 2019-05-09 ·

Biomass (e.g., plant biomass, animal biomass, and municipal waste biomass) is processed to produce useful intermediates and products, such as energy, fuels, foods or materials. For example, systems and methods are described that can be used to treat feedstock materials, such as cellulosic and/or lignocellulosic materials, while cooling equipment and the biomass to prevent overheating and possible distortion and/or degradation. The biomass is conveyed by a conveyor, which conveys the biomass under 10 an electron beam from an electron beam accelerator. The conveyor can be cooled with cooling fluid. The conveyor can also vibrate to facilitate exposure to the electron beam. The conveyor can be configured as a trough that can be optionally cooled.