序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
241 Paper product, and process for manufacturing a paper product US13394192 2010-09-06 US08821690B2 2014-09-02 Mikko Oksanen; Janne Varvemaa
The invention relates to a paper product formed from fiber-based source material and applicable as printing paper. According to the invention, the surface of the paper product is finished by providing sufficient density on the surface so that the density of at least one surface layer of the paper product is sufficiently high to yield a Gurley-Hill value of more than 7000 s/100 ml as measured from the entire paper product, and the paper product has been dried to a moisture content of less than 3.5%. In addition, the invention relates to a process for manufacturing a paper product.
242 Process for manufacturing high solids suspensions of mineral materials US13698296 2011-05-26 US08721838B2 2014-05-13 Matthias Buri; Patrick A. C. Gane
The present invention relates to a process for manufacturing high solids aqueous suspensions of mineral materials comprising the steps of providing at least one mineral material, preparing an aqueous suspension comprising the at least one mineral material, grinding the resulting aqueous suspension, centrifuging the ground aqueous suspension, and concentrating the centrifuged product of step d) by flash cooling; the high solids aqueous suspension of mineral materials obtained by this process, as well as the use thereof.
243 Method for the preparation of low odor copolymer latexes US13518154 2010-12-16 US08691937B2 2014-04-08 Bernard Fouchet; Gerold Lohmueller; Patric Eckerle
A method of preparing a low odor polymer latex composition includes the step of polymerizing a monovinylidene monomer, such as styrene, and a conjugated diene, such as butadiene, in the presence of a linear alkyl thiol chain transfer agent. The resulting polymer latex is treated with an oxidizing agent to oxidize residual chain transfer agent to volatile decomposition products that are then removed by steam stripping.
244 Wet-end manufacturing process for bitumen-impregnated fiberboard US13524641 2012-06-15 US08518217B2 2013-08-27 Tariq Mahmood Malik
A process for manufacturing fiberboard by preparing a fiber slurry mixture including containing cellulose fibers and water then atomizing a liquid bituminous material, such as asphalt. The liquid bituminous material is atomized by mixing it with a pressurized gas, such as compressed air, forming a mist comprising droplets of bituminous material having a diameter between 20 microns and 50 microns. A water spray solidifies the bituminous material droplets thereby forming bituminous particles which fall into the fiber slurry within the spray chamber. From there the slurry is sheared, dewatered, and dried, forming a finished fiberboard.
245 Wet-End Manufacturing Process for Bitumen-Impregnated Fiberboard US13748169 2013-01-23 US20130125784A1 2013-05-23 Tariq Mahmood Malik
A process for manufacturing fiberboard by preparing a fiber slurry mixture including containing cellulose fibers and water then atomizing a liquid bituminous material, such as asphalt. The liquid bituminous material is atomized by mixing it with a pressurized gas, such as compressed air, forming a mist comprising droplets of bituminous material having a diameter between 20 microns and 50 microns. A water spray solidifies the bituminous material droplets thereby forming bituminous particles which fall into the fiber slurry within the spray chamber. From there the slurry is sheared, dewatered, and dried, forming a finished fiberboard.
246 Wet-end manufacturing process for bitumen-impregnated fiberboard US13526201 2012-06-18 US08382952B2 2013-02-26 Tariq Mahmood Malik
A process for manufacturing fiberboard by preparing a fiber slurry mixture including containing cellulose fibers and water then atomizing a liquid bituminous material, such as asphalt. The liquid bituminous material is atomized by mixing it with a pressurized gas, such as compressed air, forming a mist comprising droplets of bituminous material having a diameter between 20 microns and 50 microns. A water spray solidifies the bituminous material droplets thereby forming bituminous particles which fall into the fiber slurry within the spray chamber. From there the slurry is sheared, dewatered, and dried, forming a finished fiberboard.
247 PRINTABLE SHEET THAT IS ULTRA-SMOOTH AND RECYCLABLE, AND ITS METHOD OF FABRICATION US13515471 2010-12-22 US20120308744A1 2012-12-06 Gael Depres; Jean-Marie Vau
A method of fabricating a smooth or ultra-smooth printable sheet, the method comprising the steps consisting in: preparing a multilayer structure (12) having at least one bottom plastics film (14), one anti-adhesive intermediate layer (16), and one printable top layer (18), pasting one face (30) of a substrate (24) or the top face (28) of the printable layer, and applying the substrate onto the printable layer in order to laminate them together, then withdrawing the plastics film from the printable layer, the printable layer (18) defining a smooth or ultra-smooth face (22) on the sheet.
248 Wet-end manufacturing process for bitumen-impregnated fiberboard US13248758 2011-09-29 US08241463B2 2012-08-14 Tariq Mahmood Malik
A process for manufacturing fiberboard by preparing a fiber slurry mixture including containing cellulose fibers and water then atomizing a liquid bituminous material, such as asphalt. The liquid bituminous material is atomized by mixing it with a pressurized gas, such as compressed air, forming a mist comprising droplets of bituminous material having a diameter between 20 microns and 50 microns. A water spray solidifies the bituminous material droplets thereby forming bituminous particles which fall into the fiber slurry within the spray chamber. From there the slurry is sheared, dewatered, and dried, forming a finished fiberboard.
249 Method and arrangement for exhausting gas from a coating material US11915973 2006-05-22 US07935179B2 2011-05-03 Heikki Vatanen; Timo Nurmiainen; Jukka Koskinen; Ilpo Honkanen
A method and apparatus for exhausting gas from a coating material. The coating material is fed in the bottom part area of a drum (3) rotating around an essentially vertical axis inside a vacuum tank (1), whereby the rotating motion of the drum causes the coating material to rise up the inner wall of the drum and to discharge from the upper edge of the drum as a thin film against the inner wall of a vacuum tank, wherefrom the coating material flows downwards. The coating material is arranged to rise up the wall of the drum stepwise, so that the coating material will form a thin veil-like film on at least two different step levels (10-12), whereupon the gas bubbles in the coating material will break and be discharged from the coating material.
250 WET-END MANUFACTURING PROCESS FOR BITUMEN-IMPREGNATED FIBERBOARD US12881707 2010-09-14 US20110017415A1 2011-01-27 Tariq Mahmood Malik
A process for manufacturing fiberboard by preparing a fiber slurry mixture including containing cellulose fibers and water then atomizing a liquid bituminous material, such as asphalt. The liquid bituminous material is atomized by mixing it with a pressurized gas, such as compressed air, forming a mist comprising droplets of bituminous material having a diameter between 20 microns and 50 microns. A water spray solidifies the bituminous material droplets thereby forming bituminous particles which fall into the fiber slurry within the spray chamber. From there the slurry is sheared, dewatered, and dried, forming a finished fiberboard.
251 Fragrance slurry pad US12807416 2010-09-03 US20110000873A1 2011-01-06 Sven Dobler
The fragrance slurry pad receives a fragrance in slurry and prints the slurry into a recognizable logo, brand, or word upon a strip. To enhance the marketing impact of fragrance strip advertising and to differentiate among marketers without increase in cost, the present invention is fragrance slurry deposition pads that support and reinforce a marketing message. The preferred embodiment has a brand name, logo, or message etched into a flexographic print pad. The print pad applies the slurry to a strip located beneath a flap. Upon opening the flap, the fragrance slurry appears in a discernible pattern and visible message.
252 Wet-end manufacturing process for bitumen-impregnated fiberboard US12200993 2008-08-29 US07815772B2 2010-10-19 Tariq Mahmood Malik
A process for manufacturing fiberboard by preparing a fiber slurry mixture including containing cellulose fibers and water then atomizing a liquid bituminous material, such as asphalt. The liquid bituminous material is atomized by mixing it with a pressurized gas, such as compressed air, forming a mist comprising droplets of bituminous material having a diameter between 20 microns and 50 microns. A water spray solidifies the bituminous material droplets thereby forming bituminous particles which fall into the fiber slurry within the spray chamber. From there the slurry is sheared, dewatered, and dried, forming a finished fiberboard.
253 Wet-End Manufacturing Process for Bitumen-Impregnated Fiberboard US12200993 2008-08-29 US20100055485A1 2010-03-04 Tariq Mahmood Malik
A process for manufacturing fiberboard by preparing a fiber slurry mixture including containing cellulose fibers and water then atomizing a liquid bituminous material, such as asphalt. The liquid bituminous material is atomized by mixing it with a pressurized gas, such as compressed air, forming a mist comprising droplets of bituminous material having a diameter between 20 microns and 50 microns. A water spray solidifies the bituminous material droplets thereby forming bituminous particles which fall into the fiber slurry within the spray chamber. From there the slurry is sheared, dewatered, and dried, forming a finished fiberboard.
254 USE OF COMPOSITE MATERIALS BASED ON CARBON NANOTUBES AS THICKENING AGENTS FOR AQUEOUS SOLUTIONS US12301108 2007-05-16 US20090306276A1 2009-12-10 Stephanie Magnet; Laurence Couvreur; Olivier Guerret; Christelle Guerret-Piecourt
The present invention relates to the use of composites based on carbon nanotubes as viscosity enhancers for aqueous solutions, characterized in that said composite comprises carbon nanotubes (CNTs) and at least one hydrophilic (co) polymer.More particularly, the invention relates to the use of the composites described above as viscosity enhancers in industrial sectors such as, especially, the papermaking sector, and in particular for coating paper and for weighting paper, in the oil sector, or else in the paint, water-treatment, detergent, ceramic, cement, hydraulic-binder, public-works, ink, varnish and textile-sizing sectors.
255 Method and Apparatus for Degassing Coating Material US12159064 2006-11-09 US20090301303A1 2009-12-10 Eero Kesti; Esa Forsten
Coating material is fed into a vacuum container inside which are apparatus for separating gas from the coating material. The degassing apparatus (10) has two separate compartments (11, 12) so that degassing is carried out in two different stages by using a single apparatus.
256 Method and Arrangement for Exhausting Gas from a Coating Material US11915973 2006-05-22 US20080166488A1 2008-07-10 Heikki Vatanen; Timo Nurmiainen; Jukka Koskinen; Ilpo Honkanen
A method and apparatus for exhausting gas from a coating material. The coating material is fed in the bottom part area of a drum (3) rotating around an essentially vertical axis inside a vacuum tank (1), whereby the rotating motion of the drum causes the coating material to rise up the inner wall of the drum and to discharge from the upper edge of the drum as a thin film against the inner wall of a vacuum tank, wherefrom the coating material flows downwards. The coating material is arranged to rise up the wall of the drum stepwise, so that the coating material will form a thin veil-like film on at least two different step levels (10-12), whereupon the gas bubbles in the coating material will break and be discharged from the coating material.
257 CHEMILUMINESCENT SYSTEM US12029158 2008-02-11 US20080128666A1 2008-06-05 Keith J. Allison
A chemiluminescent reactant solution and a layer containing a solid oxidizer. An embodiment of the invention has the layer containing a solid oxidizer supported by a substrate such as paper. The reactant solution includes an oxalate and a fluorescer and reacts with the oxidizer after it is applied to the oxidizer layer. A preferred embodiment of the invention includes the presence of an oxidizer activator layer. A chemiluminescent marking system including a chemiluminescent reactant solution in at least one first delivery applicator and an oxidizer solution in a second delivery applicator. The oxidizer solution reacts with the chemiluminescent reactant solution to cause the chemiluminescent reactant solution to glow. A stabilizer may also be included in the oxidizer solution.
258 Low odor binders curable at room temperature US11787300 2007-04-16 US20070194274A1 2007-08-23 Mike Goulet; Tracy Mathews; Stacey Pomeroy; Maurizio Tirimacco
Topically-applied binder materials for imparting wet strength to soft, absorbent paper sheets, such as are useful as household paper towels and the like, include an epoxy-reactive polymer, such as a carboxyl-functional polymer, and an epoxy-functional polymer. These binder materials can be cured at ambient temperature over a period of days and do not impart objectionable odor to final product when wetted.
259 PAPERBOARD FOR USE IN WATER RESISTANT PACKAGING US11560240 2006-11-15 US20070184205A1 2007-08-09 Randall Bailey; William Lanier
A method of producing paperboard and cartons made therefrom is described incorporating a waterproof or water resistant coating applied to the interior of the carton except for areas intended for gluing. A coating material is applied to the surface of an applicator roll, and a portion of the coating material is then removed from the roll. Contact between a paperboard web and the roll transfers coating material to the web, creating a coated surface except for an uncoated stripe. A carton may be formed from the coated web with the uncoated portion of the carton cut from the uncoated strip.
260 Chemiluminescent system US11302020 2005-12-13 US20070134513A1 2007-06-14 Keith Allison
A chemiluminescent reactant solution and a layer containing a solid oxidizer. An embodiment of the invention has the layer containing a solid oxidizer supported by a substrate such as paper. The reactant solution includes an oxalate and a fluorescer and reacts with the oxidizer after it is applied to the oxidizer layer. A preferred embodiment of the invention includes the presence of an oxidizer activator layer.
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