Published Online: 2018-07-19
Published in Print: 2012-12-01
© 2018 by Walter de Gruyter Berlin/Boston
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Artikel in diesem Heft
- Contents
- BIOREFINERY: Mild steam explosion: A way to activate wood for enzymatic treatment, chemical pulping and biorefinery processes
- MECHANICAL PULPING: Estimating the area and number of bar crossings between refiner plates
- MECHANICAL PULPING: The influence of fiber dimensions on mechanical pulp long fiber tensile index and density
- MECHANICAL PULPING: Development of TMP fibers in LC- and HC- refining
- MECHANICAL PULPING: Fibre and fines quality development in pilot scale high and low consistency refining of ATMP
- MECHANICAL PULPING: Low consistency refining of mechanical pulp: Relationships between refiner operating conditions and pulp properties
- CHEMICAL PULPING: The dependency of energy consumption on cutting angles in the canter chipping process
- CHEMICAL PULPING: Further insights into extended-impregnation kraft cooking of birch
- CHEMICAL PULPING: Modeling vapor – liquid equilibria of kraft pulp mill condensates containing methanol, turpentine and total reduced sulphur (TRS) components
- PAPER CHEMISTRY: Prediction of breaks caused by lipophilic extractives using on-line turbidity measurement
- Polyelectrolyte multilayering of fibers with different polymer combinations and a comparison of its effect on paper strength with a conventional dry strength agent treatment
- Influence of Jack pine earlywood and latewood fibers on paper properties
- PAPER PHYSICS: Determinations of bubble size distribution of foam-fibre mixture using circular hough transform
- PAPER PHYSICS: An experimental study of the turbulent mixing layer in concentrated fiber suspensions
- Evaluation of furnishes for tissue manufacturing; wet pressing
- PAPER PHYSICS: X-ray microtomography measurements of paper surface roughness
- PAPER PHYSICS: A method for measurement of the directional emittance of paper in the infrared wavelength range
- PAPER PHYSICS: Modeling spatial reflection from an uncoated printing paper using Monte Carlo simulation
Schlagwörter für diesen Artikel
Bubble size distribution;
Aqueous foam;
Foam-fibre mixture;
Circular hough transform;
Sodium dodecyl sulphate
Artikel in diesem Heft
- Contents
- BIOREFINERY: Mild steam explosion: A way to activate wood for enzymatic treatment, chemical pulping and biorefinery processes
- MECHANICAL PULPING: Estimating the area and number of bar crossings between refiner plates
- MECHANICAL PULPING: The influence of fiber dimensions on mechanical pulp long fiber tensile index and density
- MECHANICAL PULPING: Development of TMP fibers in LC- and HC- refining
- MECHANICAL PULPING: Fibre and fines quality development in pilot scale high and low consistency refining of ATMP
- MECHANICAL PULPING: Low consistency refining of mechanical pulp: Relationships between refiner operating conditions and pulp properties
- CHEMICAL PULPING: The dependency of energy consumption on cutting angles in the canter chipping process
- CHEMICAL PULPING: Further insights into extended-impregnation kraft cooking of birch
- CHEMICAL PULPING: Modeling vapor – liquid equilibria of kraft pulp mill condensates containing methanol, turpentine and total reduced sulphur (TRS) components
- PAPER CHEMISTRY: Prediction of breaks caused by lipophilic extractives using on-line turbidity measurement
- Polyelectrolyte multilayering of fibers with different polymer combinations and a comparison of its effect on paper strength with a conventional dry strength agent treatment
- Influence of Jack pine earlywood and latewood fibers on paper properties
- PAPER PHYSICS: Determinations of bubble size distribution of foam-fibre mixture using circular hough transform
- PAPER PHYSICS: An experimental study of the turbulent mixing layer in concentrated fiber suspensions
- Evaluation of furnishes for tissue manufacturing; wet pressing
- PAPER PHYSICS: X-ray microtomography measurements of paper surface roughness
- PAPER PHYSICS: A method for measurement of the directional emittance of paper in the infrared wavelength range
- PAPER PHYSICS: Modeling spatial reflection from an uncoated printing paper using Monte Carlo simulation