Patent classifications
A61F13/5125
ABSORBENT ARTICLES WITH CHANNELS
- Donald Carroll Roe ,
- Kathy Quinlan Ames-Ooten ,
- Blanca Arizti ,
- Julia Boesel ,
- Aniruddha CHATTERJEE ,
- Nelson Edward Greening, II ,
- Sharon Irene Grenberg ,
- Carsten Heinrich Kreuzer ,
- Cornelia Beate Martynus ,
- Marie Brigid O'Reilly ,
- Rodrigo Rosati ,
- Saundra Sautter ,
- Beate Simon ,
- Lutz Stelzig ,
- Rachel Eden Walther
The present disclosure is directed, in part, to an absorbent article comprising a liquid management system (LMS) and an absorbent core disposed at least partially intermediate a topsheet and a backsheet. The LMS defines one or more channels therein. The one or more channels of the LMS may at least partially overlap or not overlap with channels defined in the absorbent core.
FIBROUS STRUCTURES HAVING A CONTACT SURFACE
Fibrous structures, for example pre-moistened fibrous structures, having a novel contact surface (micro protrusion surface) and methods for using the fibrous structures and making the fibrous structures are provided.
ABSORBENT ARTICLE
An absorbent article having improved handling of body exudates. The absorbent article can minimize the amount of body exudates in contact with a wearer's skin and can minimize the incidence of leakage of body exudates from the absorbent article.
Absorbent article with a fluid entangled body facing material including a plurality of projections
An absorbent article having improved handling of body exudates. The absorbent article can minimize the amount of body exudates in contact with a wearer's skin and can minimize the incidence of leakage of body exudates from the absorbent article. In one example, the article can include an outer cover, a body facing material, and an absorbent body. The body facing material can include a plurality of projections with a land area disposed between the plurality of projections, wherein the land area has an open area greater than about 10% open area in a chosen area.
Absorbent articles with channels
- Donald Carroll Roe ,
- Kathy Quinlan Ames-Ooten ,
- Blanca Arizti ,
- Julia Boesel ,
- Aniruddha CHATTERJEE ,
- Nelson Edward Greening, II ,
- Sharon Irene Grenberg ,
- Carsten Heinrich Kreuzer ,
- Cornelia Beate Martynus ,
- Marie Brigid O'Reilly ,
- Rodrigo Rosati ,
- Sandra Sautter ,
- Beate Simon ,
- Lutz Stelzig ,
- Rachael Eden WALTHER
The present disclosure is directed, in part, to an absorbent article comprising a liquid management system (LMS) and an absorbent core disposed at least partially intermediate a topsheet and a backsheet. The LMS defines one or more channels therein. The one or more channels of the LMS may at least partially overlap or not overlap with channels defined in the absorbent core.
Fibrous structures having a contact surface
Fibrous structures, for example pre-moistened fibrous structures, having a novel contact surface (micro protrusion surface) and methods for using the fibrous structures and making the fibrous structures are provided.
METHOD FOR MANUFACTURING ABSORBENT ARTICLE AND ABSORBENT ARTICLE
Provided is an absorbent article which includes a top sheet having extruded protrusions and a second sheet bonded to the top sheet and has adequate softness, satisfactory appearance, and yet prevents wrinkles in the top sheet along the MD. The problem is solved by a method of producing an absorbent article including forming the extruded protrusions through embossing of non-woven fabric to be a top sheet transferred by being drawn from downstream of a production line; and then bonding the non-woven fabric and a material of a second sheet in a bonding pattern formed by aligning the material of the second sheet 40 with the back face of the non-woven fabric having extruded protrusions, forming rows of plurality of top-second bonded portions at intervals in the CD in regions between the extruded protrusions adjacent each other in the MD so as to be provided across the center positions of the regions in the CD, and compressing the non-woven fabric in areas between the top-second bonded portions in the rows in the CD without welding of the non-woven fabric and the material of the second sheet.
Absorbent article and method for manufacturing sheet with three-dimensional opening used therefor
A topsheet (2) includes a laminate of a first nonwoven fabric (20) and a second nonwoven fabric (21), the two nonwoven fabrics (20, 21) are fused together at peripheral edges of openings (22) to form a plurality of fusion bond portions (23), and the first nonwoven fabric (20) in a region other than the fusion bond portions (23) protrudes in a direction away from the second nonwoven fabric (21) to form a plurality of projections (24) protruding toward the skin of a wearer. Each fusion bond portion (23) has a protrusion (26) protruding toward a sublayer (3), and a plurality of the protrusions (26) are dispersed on a surface (2b) of the topsheet (2) facing the sublayer (3). When the topsheet (2) is pressed toward the sublayer (3), the sublayer (3) is partially pressed by the protrusions (26).
Absorbent articles with channels
- Donald Carroll Roe ,
- Kathy Quinlan Ames-Ooten ,
- Blanca Arizti ,
- Julia Boesel ,
- Aniruddha CHATTERJEE ,
- Nelson Edward Greening, II ,
- Sharon Irene Grenberg ,
- Carsten Heinrich Kreuzer ,
- Cornelia Beate Martynus ,
- Marie Brigid O'Reilly ,
- Rodrigo Rosati ,
- Sandra Sautter ,
- Beate Simon ,
- Lutz Stelzig ,
- Rachael Eden WALTHER
The present disclosure is directed, in part, to an absorbent article comprising a liquid management system (LMS) and an absorbent core disposed at least partially intermediate a topsheet and a backsheet. The LMS defines one or more channels therein. The one or more channels of the LMS may at least partially overlap or not overlap with channels defined in the absorbent core.
THREE-DIMENSIONAL NONWOVEN MATERIALS AND METHODS OF MANUFACTURING THEREOF
Three dimensional nonwoven materials and methods of manufacturing such materials are disclosed. In one embodiment, a method can include providing a precursor web that includes a plurality of fibers and transferring the precursor web to a forming surface having a plurality of forming holes. The method can also include directing a plurality of pressurized fluid streams of entangling fluid in a direction towards the precursor web on the forming surface to move at least some of the fibers into the plurality of forming holes to create a fluid entangled web. The method can further include removing the fluid entangled web from the forming surface such that the at least some of the fibers moved into the plurality of forming holes provide a plurality of nodes. The plurality of nodes can have an anisotropy value greater than 1.0 as determined by the Node Analysis Test Method.