O&m Halyard, Inc.

Kimberly-clark Worldwide, Inc.

Avent, Inc.

O&m Halyard International Unlimited Company

Mark Thomas Pamperin

Joseph P Weber

David Lamar Harrington

Ajay Yashvantrao Houde

Nathan Craig Harris

Eric Clayton Steindorf

Anthony Stephen Spencer

Melissa R Gaynor

Eric T Bricker

Eric C Steindorf

Anthony S Spencer

Corinna Schwarz

Jeffrey James Farmer

Catherine J Turnbow

David L Harrington

Audra Stefanik Wright

Timothy Wilson Reader

Thomas Gregory Triebes

Joel Brostin

Nancy H Puckett

Brian L Gustin

Wade R Thompson

Shawn Eric Jenkins

Tara Denise Smith

David Lamer Harrington

R Gaynor Melissa

An automated method is provided for forming pleats in a textile product in a production line. The method includes conveying a web of the textile product on a conveyor in the production line. The web is folded using a folding board at a folding station in the production line. The method includes removing heat from the folding board. The automated method can allow for high speed folding of the textile product without damaging the textile product from heat caused by friction between the web of textile product and the folding board.

Method and system for forming pleats in a textile product in a production line

A multi-panel sterilization assembly that includes a barrier panel formed of a permeable material, barrier panel bolsters at or adjacent at least a portion of two edges of the barrier panel, a fold protection panel, and at least one panel attachment means. The barrier panel has a first end and a second end opposite the first end such that the barrier panel has a length that is the distance from the first end to the second end and a midpoint along the length generally delineating the barrier panel into a content receiving region and a content covering region. The barrier panel bolsters prevent the edges of the barrier panel from folding back onto itself, i.e. back towards the unfolded position, during unfolding of the barrier panel after sterilization.

Flexible multi-panel sterilization assembly with bolsters

An automated system and method wrap the fastening ties around the body of a continuous stream of facemasks in a facemask production line. The facemasks are oriented such that each facemask has a leading pair of ties and a trailing pair of ties extending from a body in a conveying direction of the production line. The leading pair of ties is drawn below the body as the facemask continues to be conveyed in the conveying. The body is conveyed through a plurality of conveyor sections oriented at angles such that the conveying direction of the body changes at a junction from one conveyor section to an adjacent conveyor section. At the junctions between conveyor sections, an impinging force is directed against the body that causes the body to flip, thereby causing the leading and trailing pairs of ties to further wrap around the body.

Method and system for wrapping ties in a facemask manufacturing process

An automated method and system for stacking and loading wrapped or unwrapped facemasks into a carton in a facemask production line includes conveying individual wrapped facemasks in a continuous stream to a stacking location. At the stacking location, the facemasks are deposited into a vertical accumulator such that the facemasks are stacked in the accumulator. Upon reaching a predetermined fill level of facemasks in the accumulator, a bottom retainer in the accumulator is opened such that the stacked facemasks drop into a carton placed below the accumulator. Upon opening the bottom retainer, a mid-level retainer is actuated in the accumulator that captures facemasks that continue to be deposited into the accumulator at an intermediate height above the bottom retainer. The bottom retainer is closed after the stacked facemasks drop into the carton, and the mid-level retainer is then opened such that the facemasks captured by the mid-level retainer drop onto the bottom retainer.

Method and system for automated stacking and loading of wrapped facemasks into a carton in a manufacturing line

An automated system and method wrap the fastening ties around the body of a continuous stream of facemasks in a facemask production line. The facemasks are oriented such that each facemask has a leading pair of ties and a trailing pair of ties extending from a body in a conveying direction of the production line. At a wrapping station in the production line, the body is subsequently clamped with a clamping device of an automated robotic arm. The robotic arm is driven in the conveying direction while rotating the clamping device and body relative to a rotation axis through the body to cause the leading and trailing pairs of ties to wrap around the body. The robotic arm then deposits the facemask with wrapped ties onto the conveyor.

An automated system and method wrap the fastening ties around the body of a continuous stream of facemasks in a facemask production line. The facemasks are oriented such that each facemask has a leading pair of ties and a trailing pair of ties extending from a body in a conveying direction of the production line. At a wrapping station in the production line, the facemask body is subsequently clamped to prevent rotation of the body. The leading and trailing pairs of ties are grasped with a rotation device at each side of the conveyor that rotates around the body to wrap the leading and trailing pairs of ties to wrap around the body.

An automated method and system for stacking and loading wrapped facemasks into a carton in a facemask production line include conveying individual wrapped facemasks to a delivery location adjacent to a rotary wheel, the rotary wheel conveyor having individual pick-up devices spaced around a circumference thereof. Each wrapped facemask is picked-up with a respective pick-up device on the rotary wheel conveyor and transported to a first carton staging area at a first location on the circumference of the rotary wheel. At the first staging area, the facemasks are released from the rotary wheel conveyor and deposited into a carton.

Method and system for automated stacking and loading wrapped facemasks into a carton in a manufacturing line

A method and system are provided for splicing a reserve nose wire to a running nose wire in a facemask production line. Prior to depletion of the running nose wire, a reserve nose wire is brought up to a transport speed in a conveying direction of the running nose wire. At or near a zero relative speed between the running nose wire and the reserve nose wire, a leading end of the reserve nose wire is introduced onto the running nose wire, and the two wires are spliced together. The running nose wire is then cut upstream of the splice location such that the reserve nose wire becomes a new running nose wire in the production line.

Method and system for splicing nose wire in a facemask manufacturing process

A method and associated system for cutting and placing individual nose wires in a facemask production line include supplying a continuous wire from a supply source to a cutting station where the continuous wire is cut into individual nose wires having a defined length. The nose wires are then conveyed to a treatment station prior to being deposited onto a carrier web. At the treatment station, a surface treatment is performed on a side of the nose wires that results in an increased surface attachment of the nose wires to the carrier web.

Method and system for cutting and placing nose wires in a facemask manufacturing process

An automated system and method wrap the fastening ties around the body of a continuous stream of facemasks in a facemask production line. The facemasks are oriented such that each facemask has a leading pair of ties and a trailing pair of ties extending from a body in a conveying direction of the production line. The leading pair of ties is drawn below the body as the facemask continues to be conveyed in the conveying and wraps under the body. Subsequently, an impinging force is directed onto the body that is sufficient to cause the body to flip backwards at least once as the facemask continues to be conveyed in the conveying direction, thereby causing the leading and trailing pairs of ties to further wrap around the body.

An automated system and method wrap the fastening ties around the body of a continuous stream of facemasks in a facemask production line. The facemasks are oriented such that each facemask has a leading pair of ties and a trailing pair of ties extending from a body in a conveying direction of the production line. At a wrapping station in the production line, the body is subsequently clamped with an automated clamping device in geared engagement with a rail. The body is rotated relative to a rotation axis through the body to cause the leading and trailing pairs of ties to further wrap around the body by inducing relative linear movement between the clamping device and the rail.

An automated system and method for the manufacture of facemasks from a web of a textile product in a production line is provided. The web is conveyed in the production line along a machine direction. A first tie is attached at a tie attaching station to the web of the textile product, such that the first tie extends from the web in a cross-machine direction perpendicular to the machine direction. The web and first tie are cut at a cutting station in the cross-machine direction across a width of the web in the cross-machine direction to form a facemask separate from the web.

Method and system for manufacturing facemasks in a production line

A method and system are provided for placing nose wires in a facemask production line. A supply of individual pre-cut nose wires are supplied to a dispenser in the production line. With the dispenser, the nose wires are metered at a defined spacing and orientation onto a running carrier web that is conveyed past the dispenser. The carrier web and nose wires deposited thereon are conveyed to a folding station wherein a binder web is folded over an edge of the carrier web such that the nose wires are encapsulated between the binder web and the carrier web.

Method and system for placing pre-cut nose wires in a facemask manufacturing process

A method and associated method are provided or introducing a supply of reserve nose wires in a facemask production line prior to depletion of running nose wires in the production line. A first nose wire source and first cutter system are provided for supplying the running nose wires to the production line. A reserve nose wire source and second cutter system are staged in a stand-by state proximate to the first nose wire source. Prior to depletion of the first nose wire source, the reserve nose wire source and second cutter system are brought up to an operational speed while diverting nose wires from the second cutter system away from the production line. At operational speed of the reserve nose wire source and second cutter system, nose wires from the second cutter system are diverted to the production line while diverting nose wires from the first cutter system away from the production line.

Method and system for introducing a reserve nose wire in a facemask production line

A method and associated system are provided for splicing a reserve nose wire to a running nose wire in a facemask production line, wherein the running nose wire is supplied continuously from a supply roll. Prior to depletion of the running nose wire, the supply roll is moved from an operating location to an intermediate location that is further from the production line while continuing to supply the running nose wire from the supply roll. The supply roll is then moved from the intermediate location back towards the production line while decelerating the supply roll to a stop, thereby creating an accumulation of the running wire functionally between the supply roll and the production line. With the supply roll at a stop, the running nose wire is continuously supplied from the accumulation and a leading end of a reserve roll of nose wire is spliced to the running nose wire at a location upstream of the accumulation where the running nose wire is at a standstill. The running nose wire is then cut at a location upstream of the splice such that the reserve nose wire and reserve roll become a new running nose wire and new supply roll in the production line.

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Cumming, GA, United States of America

Mark Thomas Pamperin