Abstract:
A sheet product dispenser includes a housing for accommodating a source of a sheet product and a dispenser opening for dispensing the sheet product. The dispenser opening is provided in a rotatable dispensing member. Rotation of the rotatable dispensing member is restricted to one rotating axis. The dispenser opening is offset from the rotating axis of the rotatable member. Rotation of the rotatable dispensing member results from a lateral force applied by a pulled sheet product strip onto the dispenser opening such that the dispenser opening moves as far as possible into a pulling direction so as to minimize an angle between the pulling direction and a dispensing direction of the dispenser opening.
Abstract:
A multi-ply tissue paper product includes at least two plies made of tissue paper base-sheet with at least one outer ply being a structured outer ply produced by a structuring manufacturing method. The structured outer ply includes a microstructure pattern on substantially at least 80% of the structured outer ply surface. The microstructure pattern is applied by micro-embossing during a converting operation. The structured outer ply is chosen from a through air dried ply produced by a through air drying (TAD) manufacturing method; a dried ply produced by an advanced tissue molding system (ATMOS), or a dried ply produced by a structured tissue technology (SST) manufacturing method. The microstructure pattern includes a first series of protuberances having a density ranging from approximately 30 to 100 protuberances/cm2. The softness property of the structured outer ply is adjusted during a micro-embossing step.
Abstract:
An absorbent sheet products strip, the strip including a continuous succession of individual absorbent sheets separated from each other by tear lines. The absorbent sheets are made of at least two plies bonded together by bonding points or lines or curves forming pattern units. Multiple pattern units are distributed all over a surface of the individual absorbent sheets such that the pattern units of one individual absorbent sheet does not superpose with other pattern units of a determined number of successive individual absorbent sheets in the strip when said successive individual absorbent sheets are disposed on each other.
Abstract:
A stack of interfolded absorbent sheet products includes a plurality of a first group of absorbent sheet products folded according to a first type of folding wherein at least two panels are created by one folding line, and a plurality of a second group of absorbent sheet products folded according to a second type of folding wherein at least two other panels are created by at least one other folding line. The plurality of the first and second groups are orientated side by side in opposition relative to each other, the plurality of the first and second groups being interfolded into each other so that the panels of two groups positioned adjacent relative to each other overlap. Each group of absorbent sheet products includes a certain amount, at least two, of uncoupled absorbent sheet products so as to dispense the certain amount of absorbent sheet products with one grasping movement of the group.
Abstract:
A stack of folded absorbent sheet products includes a first absorbent sheet product folded according to a first type of folding, the first absorbent sheet product includes at least one fold wherein at least a first panel is coupled to at least a second panel through a folding line. Each first absorbent sheet product encloses as a whole a certain amount of a second absorbent sheet product between said at least first panel and second panel, the second absorbent sheet product being folded according to a second type of folding. The certain amount of the second absorbent sheet product is formed as a sub-stack that nests within the first absorbent sheet product so as to distribute the certain amount of absorbent sheet product with one grasping movement of the first absorbent sheet product.
Abstract:
A multi-ply tissue paper product includes at least two plies made of tissue paper base-sheet with at least one outer ply being a structured outer ply produced by a structuring manufacturing method. The structured outer ply includes a microstructure pattern on substantially at least 80% of the structured outer ply surface. The microstructure pattern is applied by micro-embossing during a converting operation. The structured outer ply is chosen from a through air dried ply produced by a through air drying (TAD) manufacturing method; a dried ply produced by an advanced tissue molding system (ATMOS), or a dried ply produced by a structured tissue technology (SST) manufacturing method. The microstructure pattern includes a first series of protuberances having a density ranging from approximately 30 to 100 protuberances/cm2. The softness property of the structured outer ply is adjusted during a micro-embossing step.
Abstract translation:多层薄纸制品包括由薄纸基片制成的至少两层,至少一层外层是通过结构化制造方法制成的结构化外层。 结构化外层包括基本上至少80%的结构化外层表面的微结构图案。 在转换操作期间通过微压花施加微结构图案。 结构化外层选自通过空气干燥(TAD)制造方法生产的通风干燥层; 通过高级组织模制系统(ATMOS)生产的干燥层,或通过结构化组织技术(SST)制造方法生产的干燥层。 微结构图案包括密度范围为约30至100个突起/ cm 2的第一系列突起。 在微压花步骤期间调节结构化外层的柔软性。
Abstract:
A method for determining the softness of a sheet of tissue paper through NIR spectrometry, includes, after having created a softness values model according to data obtained through NIR spectrometry for a set of reference tissue paper sheets, carrying out the spectral analysis of said sheet and determining the softness value on the basis of the model. The method includes obtaining the softness values of the reference tissue paper sheets of the model through sensory analysis.
Abstract:
A roll of sheet product, in particular of tissue paper, with a central hole along its winding axis includes a cylindrical reinforcing element onto which the paper is wound. The reinforcing element includes at least one ring joined to the innermost turn of the roll, with a width less than the width of the roll and provided with a means of extracting the ring by pulling substantially along the axis of the roll.