Abstract:
A method and system for forming hybrid cluster to process log files are described. In example embodiments, a method configures a node to execute as a first slave node. The first slave node executes in a first operating environment. The method also adds the first slave node to a Hadoop cluster. The Hadoop cluster includes a second slave node that operates in a second and different operating environment.
Abstract:
A method and system for forming hybrid cluster to process log files are described. In example embodiments, a method configures a node to execute as a first slave node. The first slave node executes in a first operating environment. The method also adds the first slave node to a Hadoop cluster. The Hadoop cluster includes a second slave node that operates in a second and different operating environment.
Abstract:
A method of making an absorbent core structure includes meltspinning at least one layer of fibrous material. At least one valley is formed separating at least two peaks in substantially parallel rows in the layer of fibrous material. A first portion of the first layer of fibrous material is folded over a second portion of the first layer of fibrous material. A least part of the first layer of fibrous material is densified.
Abstract:
A method of making an absorbent core structure includes meltspinning at least a first layer of fibrous material having a plurality of first portions and a plurality of second portions. A superabsorbent material is deposited between the respective first and second portions of the first layer. The first portions of the first layer are moved with respect to the second portions of the first layer so as to at least substantially encapsulate the deposited superabsorbent material between the respective first and second portions.
Abstract:
Methods, apparatus and disposable hygienic absorbent products involving mesh processing a synthetic resin or resins, such as a thermoplastic, in an in-line process. The mesh processing operations can be melt spinning processes such as spunbonding and/or meltblowing the resin(s). One or more through air bonders are used in the process to provide bonding between fibers or filaments while retaining the liquid management properties of the fibers or filaments in the disposable hygienic absorbent product. Other melt processing operations, such as film extrusion, may also be used to form one or more layers in the disposable hygienic absorbent product.
Abstract:
An absorbent core structure having at least one acquisition region, at least one distribution region, and at least one storage region. The acquisition region being constructed from a fibrous material. The acquisition region having a relatively low density from about 0.018 g/cc to about 0.20 g/cc. The distribution region being constructed from said fibrous material. The distribution region being consolidated to have a relatively medium density from about 0.024 g/cc to about 0.45 g/cc. The distribution region being in fluid communication with said acquisition region. The storage region being constructed from said fibrous material. The storage region being consolidated to have a relatively high density from about 0.030 g/cc to about 0.50 g/cc. The storage region being in fluid communication with said distribution region. A portion of the fibrous material being formed into at least one peak and at least one valley and then subsequently folded in order to form said absorbent core structure.
Abstract:
A method of making an absorbent core structure includes meltspinning at least one layer of fibrous material. A first amount of superabsorbent material is deposited on the layer of fibrous material. A first portion of the layer of fibrous material is folded over the first amount of superabsorbent material. A second amount of superabsorbent material is deposited on the layer of fibrous material. A second portion of the layer of fibrous material is folded over the second amount of superabsorbent material. Additional embodiments involve rolling the fibrous material and/or densifying one of the layers relative to the other.
Abstract:
A stabilized filament drawing device for a meltspinning apparatus and a meltspinning apparatus including the stabilized filament drawing device. The stabilized filament drawing device applies a high-velocity flow of air to attenuate the filaments, which are discharged from a device outlet in a discharge direction. The filament drawing device includes multiple inclined guides adjacent to the outlet that cause the filaments and high-velocity flow of air to deviate from the discharge direction. Each of the guides has a major surface that is angled relative to a common plane containing the discharge direction and a cross-machine direction of the device outlet of the filament drawing device. The guides are oriented such that the major surface is also inclined relative to the discharge direction.
Abstract:
Apparatus and methods for folding a nonwoven web without mechanical contact against a folding surface. A first portion of the nonwoven web is secured to a collector by vacuum and a positive pressure differential is applied to a second portion of the moving nonwoven web. An unbalanced lifting force applied by the positive pressure differential causes the first portion to fold along a longitudinal fold line extending in a machine direction and to assume an overlapping relationship with the second portion. The vacuum assists in the folding process and maintains the overlapping relationship until the nonbonded nonwoven web is consolidated. One or more elastic strands or bands may be captured in the space defined between the overlapped first and second portions.
Abstract:
A liquid dispensing module and nozzle or die tip for discharging at least one liquid filament. The nozzle includes a strand guide for guiding a substrate past the nozzle and a frustoconical protrusion disposed on a surface of the nozzle adjacent the notch. A liquid discharge passage extends along an axis through the frustoconical protrusion and forms an acute angle with a machine direction corresponding to movement of the strand past the nozzle. Four air discharge passages are positioned at the base of the frustoconical protrusion. Each of the air discharge passages is angled in a compound manner generally toward the liquid discharge passage and offset from the axis of the liquid discharge passage to create the controlled pattern of liquid material on the strand.