246results about "Using shock-absorbing media" patented technology

A method for producing inflated dunnage on the site of use, comprising providing, in rolled form, a plurality of preformed plastic bags, each of the bags comprising two plastic sheets in facing relationship and sealed along three edges with one edge remaining open. Air is blown toward each of the open edges in sequence, causing each bag to inflate, and the fourth edge of each inflated bag is sealed, the bag being empty except for the air. At least one sealed inflated bag is separated from the roll and placed in a carton to serve as dunnage. In an alternate embodiment, the stock material is provided in a continuous tubular form, and an air inflation needle is used to puncture a surface of the tube for inflation purposes.

An apparatus for forming inflated containers from a film web having two juxtaposed film plies includes: a. a mechanism that conveys the film web along a path of travel; b. a first sealing device for producing one or more seals that bond the film plies together to form a container having at least one opening; c. an inflation assembly for inflating the container by directing a stream of gas into the opening thereof; and d. a second sealing device for sealing closed the opening of the inflated container.

The present invention provides a collapsible foam shipping cooler and a process for producing the collapsible cooler. The collapsible cooler includes a linear series of attached side panel sections where each of the adjacent side panel sections are separated by a V groove formed by 45° beveled cuts made in a ends of each of the sections, and an adhesive tape flexible hinge is attached on the side of the panels opposite the V groove. The series of attached side panel sections is movable between a collapsed storage mode and an assembled mode where the series of sections are arranged to form a closed rectangular loop with top and bottom perimeter edges. Top and bottom foam panels contact the top and bottom edges of the closed loop to form a closed insulated cooler which is matingly received in a conventional corrugated box shipping container.

A method for producing inflated dunnage on the site of use, comprising providing, in web form, a plurality of preformed plastic bags, each of the bags comprising two plastic sheets in facing relationship and sealed along three edges with one edge remaining open. Air is blown toward each of the open edges in sequence, causing each bag to inflate, and the open edge of each inflated bag is sealed, the bag being empty except for the air. A plurality of sealed inflated bags is separated from the web and placed in a carton to serve as dunnage. The bags have a slip resistant outer surface which causes the bags to interlock in the carton and better protect object therein from shock.

A method for sealing-in a gas in a gas filling compartment 5 of a bag having a cut-in 6 formed near the upper edge of the gas filling compartment. In the method, two edges of the bag with the contents inserted therein are gripped by grippers and suspended, the blow-in port of a gas (air) blow-in nozzle is brought to contact the cut-in, the back surface side of the bag is supported by a backing member, gas (air) is blown into the gas filling compartment, and the position below the cut-in is held from both sides of the bag by a gas cut-off grippers while the gas blow-in continues, so that the gas inside the gas filling compartment is not allowed to escape from the cut-in, and then the entire bag mouth, including the cut-in, is sealed.

A packaging system includes a cushioning conversion machine for converting stock material into relatively low density cushioning material or dunnage and a packaging system controller. The packaging system controller provides packaging instructions related to a part or parts to be packaged and instructs the cushioning conversion machine to produce the cushioning material. In one aspect of the present invention the packaging system controller provides packaging instructions by retrieving a predetermined set of packaging instructions associated with a particular part. In another aspect of the present invention the packaging system controller provides packaging instructions by determining an optimized packaging methodology using one or more characteristics of the part or parts to be packaged. The packaging system also provides for automated inventory control and productivity monitoring.

A flexible structure inflation device, comprising an inflation assembly configured for insertion between first and second overlapping film layers of a web of material, the inflation assembly having a fluid conduit configured directing a fluid in between the layers to inflate the web; and a cutting member held magnetically in an operative position adjacent the inflation assembly to cut the film passing over the inflation assembly.

A packing member for packing an article, includes a medium accommodating portion for accommodating medium; a non-return valve for passing the medium to the medium accommodating portion and stopping the medium away from the medium accommodating portion; an introducing portion for introducing the medium into the medium accommodating portion with the non-return valve from an outside of the packing member to balloon the medium accommodating portion; and a sealing region, disposed upstream of the non-return valve with respect to a direction of the introduction of the medium from the introducing portion toward the non-return valve, for sealing against the introduction of the medium to prevent leakage from the introducing portion to an outside of the packing member, the sealing region being sealed to keep the medium in the medium accommodating portion.

In a method and apparatus for charging a gas into a gas compartment portion (6) of a bag (1), after a pre-heating step which is performed in stop position (IV) so that the gas compartment portion of the bag is heated by a heated gas-blowing nozzle (27), a preliminary gas injection step for injecting gas into the gas compartment portion is performed by a gas blowing nozzle (28) and a receiving member (29) in stop position (V). Then, a gas filling step is carried out in stop position (VI) by gas injection nozzles (23, 24), and the incision (9) in the gas compartment portion is sealed in stop position (VII). In the following pre-heating step, the front and rear film sheets (7, 8) of the gas compartment portion are softened, and in the preliminary gas injection step, the film sheets are separated and their adhesion is eliminated.

The invention discloses a production line for automatic boxing of wall and floor tiles, comprising a conveyor line for conveying tile bodies and paper boards, a tile loading mechanism, a paper board extracting mechanism, a paper box shaping mechanism and a palletizing mechanism, wherein the four mechanisms are arranged along the conveyor line; in the tile loading mechanism, the tile bodies have component motion vertical to the plane of the tile bodies at the initial time when swing arms drive the tile bodies to rotate, thus avoiding the edges of the tile bodies from being damaged; in the paper board extracting mechanism, stoppers are used for forcing the paper boards to bend, thus avoiding two layers of paper boards from being taken out simultaneously; in the paper box shaping mechanism, the paper boards bearing the tile bodies naturally slide on rollers and stop, thus avoiding dislocation between the tile bodies and the paper boards as well as between the tile bodies due to instant stop of the paper boards; and in the palletizing mechanism, an elevating mechanism is only used for driving a manipulator and a translational mechanism to go up and down, thus ensuring the mechanical structure to be simplified and easy to maintain. The invention improves the boxing quality of the production line from multiple aspects.

A bag made of an outer bag 3 and an inner bag 2. The inner bag, inside the outer bag, has an opening in the upper edge, and the inner and outer bags are sealed along the upper edges, on either side of the respective bags, to form sealed portions 8 and 9, and the inner bag and outer bag are further sealed together at two lateral side edges and lower edge to form sealed portions 11 and 12 and sealed portion 13, thus forming gas filling compartments 14 and 15. Cut-ins 18 and 19 are formed in the upper comers of the outer bag, and supplemental sealed portions 16 and 17 connected to the sealed portions 8 and 9 are formed. Air (gas) is blown into the gas filling compartments 14 and 15 through the cut-ins and then the overall bag mouth including the cut-ins is sealed.

Systems are provided for automatically optimizing packaging and dunnage for a group of objects. The systems calculate dimensions for a custom-made packaging template. The dimensions for the custom-made packaging template are adjusted to allow for a specific amount of dunnage. The systems generate a packaging command that causes a packaging-production machine to generate custom-made packaging templates based upon the calculated dimensions for the custom-made packaging template. The systems also generate a dunnage command that causes a dunnage-production machine to generate the specific amount of dunnage.

A paper product comprised of two or more slit material layers, each layer having a pattern design to create interlocking layers of expansion sheet packaging materials. Each layer expands to create a three dimensional open netting of cells of hexagons, and the like, and is designed to have limited nesting with its opposing layer, thereby maximizing the thickness of the combined layers as compared to nested layers. The layers having differing slit patterns that produce when expanded, inclined land areas that having different angles of inclination of the land areas, such that adjacent layers can interlock, that is, have a restricted amount of nesting.

A bottle shipping system and method for packaging bottles that prevents movement of the bottles during transport. The system includes a first foam section is placed on the bottom wall of a carton having a rectangular shaped prism having four side walls, a bottom wall and a top wall to provide a support surface on which the bottles are placed. A second foam section having a first plurality of openings therethrough adapted to receive the body of the bottles is disposed within the carton above the first foam section. A third foam section having a second plurality of openings therethrough adapted to receive the neck of the bottles is disposed between the second foam section and the top wall of the carton. A fourth foam section to provide a buffer surface against which the bottles are pressed is placed against the top wall of the carton.

A packing member for packing an article, includes a medium accommodating portion for accommodating medium; a non-return valve for passing the medium to the medium accommodating portion and stopping the medium away from the medium accommodating portion; an introducing portion for introducing the medium into the medium accommodating portion with the non-return valve from an outside of the packing member to balloon the medium accommodating portion; and a sealing region, disposed upstream of the non-return valve with respect to a direction of the introduction of the medium from the introducing portion toward the non-return valve, for sealing against the introduction of the medium to prevent leakage from the introducing portion to an outside of the packing member, the sealing region being sealed to keep the medium in the medium accommodating portion.

Bag blank (13) comprising an inflatable package blank (11) on a running web, which package blank (11) comprises a semi-finished product consisting of a first plane plastic sheeting (21) and a second plane plastic sheeting (22), which plastic sheetings abut with their plane surfaces against each other and are interconnected by welds (18) so that a series of delimited transverse chambers (16) is formed between the two plastic sheetings (21,22) across the surface of the entire package blank (11), this semi-finished product being folded or welded together along a longitudinal centre line (14) so that its two long sides are parallel and face in the same direction, and that a first longitudinal suspension arrangement (15, 23a, 43a) is connected to the edge along the first long side of the package blank (11) or the bag blank (13), and that a second longitudinal suspension arrangement (23b, 43b) is applied at the edge along the second long side of the package blank (11) or the bag blank (13), as well that the bag blank (13) is provided with transverse full-penetration weldings (18) having a length that has been terminated a distance from the longitudinal suspension arrangements.

Various embodiments for stock material for dunnage systems are provided with multi-directional perforation lines, including laterally and longitudinally extending perforations. The stock material can be configured in fan-fold or rolled form, and can be pre-folded. The perforations can help weaken the configured stock material to conform to holding trays. The holding trays can hold horizontally aligned fan-fold stacks of the stock material. Also, the configured stock material can be fed to a dunnage system have forming members that rotate about a vertical axis to generate cushioning strips with a vertical width greater than a horizontal width. Various methods and systems are also provided for making and using the same.

A package for an article (1) comprises a pressurised outer bag (5) having gas-tight seals (7) at opposite ends, and an inner web for supporting the article within the outer bag. The web extends along the length of the outer bag and is secured to the outer bag only at the gas-tight seals (7). The web is maintained under sufficient tension by the pressure within the outer bag to suspend the article within the bag and to maintain a space between the article and the outer bag on all sides of the article.

A packaging assembly in which discrete cushioning or blocking and bracing members are strategically positioned so as to provide improved protection of an article such as during shipment and storage. The assembly includes a substrate and a predetermined 2- or 3-dimensional pattern of cushioning members such as inflated (e.g., gas-filled) bags selectively and optionally independently affixed to the substrate. The pattern of cushioning members is predetermined in the x, y and z directions such that, when the substrate is positioned about the article, e.g., by folding the substrate, point contact between the cushioning members and the article is created. A method of fabricating a shock protective assembly for packaging an article is also disclosed.

A TAB tape (100) packaging structure in which (i) the TAB tape (100) including a plurality of semiconductor chips (103) which are fixed, on a film (101) on which wiring patterns are repeatedly provided and (ii) an embossed tape (200) which is electroconductive and has embossed parts (202) which are sequentially provided on a first surface of and in a longitudinal direction of a film (201) are wound on a reel which is electroconductive is arranged such that the TAB tape (100) and the embossed tape (200) are wound on the reel, while (i) a first surface of the film (101) on which surface the plurality of semiconductor chips (103) are fixed and (ii) the first surface of the film (201) on which surface the embossed parts (202) protrude are overlapping and facing each other, and the embossed tape (200) has a total thickness of not less than (t+0.4) mm and not more than 1.1 mm in a case where each of the plurality of semiconductor chips (103) has a thickness of t (0.2≦t≦0.625) mm and the film (201) has a substantial thickness of 0.125 mm. This realizes packaging of a TAB tape in a desired winding length while sufficiently securing protection of the TAB tape during shipping and transportation.

A method is disclosed for packaging polycrystalline silicon, in which a plastic bag is filled with polycrystalline silicon by means of a filling device, which has a freely suspended energy absorber consisting of a nonmetallic low-contamination material, wherein the plastic bag is pulled over the energy absorber and filled with polycrystalline silicon, and the plastic bag is lowered downward during the filling, so that the silicon slides into the plastic bag. Also disclosed is a method for packaging polycrystalline silicon, in which a plastic bag is filled with polycrystalline silicon by means of a filling device, wherein a storage container has an opening through which it is filled with silicon, the plastic bag being pulled over the storage container after filling the storage container with silicon and the storage container subsequently being rotated so that the silicon slides out of the storage container into the plastic bag.

An inflatable box or tube container and method of use are disclosed. The inflatable container may be designed in any shape or size and be made up of any rigid material. The box is uniquely designed to allow for a simple one-step process using a box with an integrated inflating tube and bottom liner to expand internally by inflation with a gaseous fluid, thereby three-dimensionally cushioning an article to be shipped. This completely protects the article and removes the need for peanuts, paper or other fillers in boxes used for shipping goods once the box is closed. The box may further include a bleed valve that releases the gaseous fluid if the inflating tube and / or bottom liner are over-inflated.

An inflatable dunnage bag for filling empty space within a container is provided. The inflatable dunnage bag includes a bag portion and a valve assembly. The valve assembly is connected to the bag portion and defines a passageway through which a fluid is introduced into the bag portion during an inflation process. The valve assembly may include a backing plate, a flap, a projection, or combination thereof. The backing plate may be positioned between front and back walls of the valve assembly and be configured to protect the back wall from an inflation nozzle inserted through the front wall during the inflation process. The backing plate may include a flap adapted to further protect the back wall and help direct the fluid flow toward the bag portion. The projection, such as a hook, is configured to position the valve assembly to a predetermined area of the container.

A tamperproof diamond package comprises a package body; at least one chip embedded in the package body and at least one antenna configured to enable communication with the chip; anti-counterfeiting visual impressions on the package body; a diamond pouch formed at a predetermined section within the package body; andone or more diamonds located inside the diamond pouch and an outer covering encasing the package body and configured to reveal any tampering with the one or more diamonds located in the diamond pouch. The diamond package can be credit card shaped and also contains serial number and website information and be provided in nominal dollar values. An associated diamond exchange system utilizes the diamond packages and provides a registration server which stores unique identifying information that enable interrogating the individual diamond packages and checking their authenticity with the registration server.