US2003123A - Woven wire belt for paper making machines - Google Patents

Woven wire belt for paper making machines Download PDF

Info

Publication number
US2003123A
US2003123A US731874A US73187434A US2003123A US 2003123 A US2003123 A US 2003123A US 731874 A US731874 A US 731874A US 73187434 A US73187434 A US 73187434A US 2003123 A US2003123 A US 2003123A
Authority
US
United States
Prior art keywords
warp
weft
wires
knuckles
elongated
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Lifetime
Application number
US731874A
Inventor
Harry G Specht
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
EASTWOOD NEALLEY CORP
EASTWOOD-NEALLEY Corp
Original Assignee
EASTWOOD NEALLEY CORP
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by EASTWOOD NEALLEY CORP filed Critical EASTWOOD NEALLEY CORP
Priority to US731874A priority Critical patent/US2003123A/en
Application granted granted Critical
Publication of US2003123A publication Critical patent/US2003123A/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Images

Classifications

    • DTEXTILES; PAPER
    • D21PAPER-MAKING; PRODUCTION OF CELLULOSE
    • D21FPAPER-MAKING MACHINES; METHODS OF PRODUCING PAPER THEREON
    • D21F1/00Wet end of machines for making continuous webs of paper
    • D21F1/10Wire-cloths

Definitions

  • BY 1 W is ATTORNEY.
  • the present invention relates to woven wire belts, particularly for paper making machines of the Fourdrinier type.
  • These belts are in the form of a continuous band of fine wire mesh which moves over spaced supporting rolls and in contact with suction boxes and rolls.
  • suction boxes and rolls In modern machines the greater number of rolls, the increased width of the machines, and the increased speed at which the machines operate, have been such that belts which would stand up for a normal periodupon older types of machines fail in the modern machines due to fatigue brought'about by the belt being bent around the great number of rolls at highly increased speed.
  • wires In order to provide strength and flexibility to meet these modern conditions wires have been woven with heavier sizes of wires in which the weft count was reduced because of the impossibility with these heavier sizes of obtaining of a fine beat up 'of the weft, with the result that the mesh openings became increasingly greater in the longitudinal direction of the wire.
  • standard wires are made of 60 to 100 mesh, the 60 mesh wire usually having 60 warp wires and IO-weft wires to the inch, and the 100 mesh wire having 100 warp wires and 86 warp wires to the inch, the intermediate sizes'being proportionate. While greater strength has been obtained a number of objections are inherent in these belts, among which may be mentioned the roughness of the paper formation surface which produces deep depressions in the paper, and the tendency of the fibres to turn down into the mesh openmgs.
  • weft knuckles would not provide any substantial wear surfaces, the wear being almost entirely confined to the warp knuckles.
  • the weft wires due to the relativethinness of the warp wires as compared to the diameters of the weft wires will undergo less deformation in the crimping than does the more flexible warp, wires, and at the same time the knuckle surfaces may be brought in the plane of the warp, wire knuckles. Also these weft knuckles due to their being formed over flatwarp wires present substantially fiat paper contact and wear.
  • weft knuckles as distinguished from the point contact surfaces of weft knuckles when formed over circular cross-section warp wires, there being a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed aboutjcircular cross-section warp wires. 7
  • the fibres of stock used in making paper when running on a wire, tend to turn down into the mesh openings, particularly where the opening is longer in the longitudinal direction of the wire, causing an unevenness of the sheet, clogging of the drainage and loss of stock. This is also accentuated by the circular crosssection wires which provide a natural diverging entrance to the mesh openings.
  • Fig. 1 is an enlarged plan view of a portion of a wire belt, according to the illustrated exemplary embodiment of my invention.
  • Fig. 2 is a longitudinal sectional view, taken alongthe line 2-2 of Fig. 1.
  • Fig. 3 is a transverse sectional along the line 3-3 of Fig. 1.
  • the Fourdrinier wire comprises warp wires IU of flat ribhon-like form, and weft wires ll of circular cross-section, the upwardly crimped knuckles of both the warp and weft wires providing the upper paper formation surface, and the downwardly bent knuckles providing thelower wearing surface.
  • the warp wire is preferably a rolled or drawn bronze wire which is annealed before weaving, and the weft wires are preferably brass.
  • Bronze wire has a greater tensile strength under elongation than brass wire, and this factor is of importance in the successful weaving of the wire mesh according to my invention.
  • the warp should control or predominate the weft.
  • the stronger warp wires permit of beating the weft wires up to a finer mesh, the flattened warp wires being highly flexible and directly taking the punishment and strain necessary in this operation.
  • the weft wires which are shaped by and follow the actionof the warp wires, only indirectly take the strain imposed by the beating up operation, and should notvbe such as to overcome the predominance or control ofthe warp wires.
  • both the warp and weft are of the same material, as for instance when they are both of brass, this control is lost, as neither the warp nor the weft will predominate over the other.
  • Other material than bronze and brass may be used for'the warp and weft, as for instance stainless steel for the warp and bronze or brass for the weft.
  • the dimensions of the warp wire are proportioned with respect to the weft wire diameter, the width being such as to provide a relatively wide paper formation and wear surface andthe thickness being such as to permit a fine beat up of the weft, and at the same time allow the knuckles of the weft, with a lesser deformation in the crimping of the weft than in the warp, to come into or very-close to the plane of the warp knuckles.
  • the width of the warp may be .012 of an inch and the thickness .004 of an inch.
  • the relative thinness of the flat warp wires allows beating up a large number of weft wires per inch, while their relative width gives an area equivalent to or greater than that of the largest round warp wire permissible.
  • the edges of the warp wires are preferably slightly rounded to allow free drainage through the, mesh openings.
  • the flat knuckles of the warp as wellas the fiat knuckles of the weft produce a paper formation surface in which the fibres willbe supported by fiat contact, as distinguished from the point contact with wires having. circular cross-section warp and weft.
  • the fine beat upof the weft provides a smooth surface which will support the paper stock without the usual tendency, to turn down into the mesh and clog it. Without sacrificing this.
  • support the mesh openings may be of adequate size to provide full drainage.
  • the fine beatup of the weft also disposes more knuckles on the wear side and as these have flat surfaces the wearing life will not only be greatly increased but the wear will be substantially uniform throughout the life of the wire.
  • the knuckles of wires formed with circular cross-section warp and weft wires have point contact when first in use so that there is a very rapid wear during the beginning of the run of the wire.
  • the wire according to a preferred embodiment of my invention has flat knuckles both in the warp and the weft, the latter being produced by their being crimped over the flat surfaces of the 'warp.
  • substantially flat weft knuckles are produced having a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be 'the case if the weft knuckles were formed about circular cross-section.warp wires.
  • the flat warp wires while providing a much greater tensile strength are at the same time more flexible than circular cross-section warp wires, so that they may be operated at high' speed. over rolls for a considerably greater time than heretofore before fatigue sets in.
  • these openings may have a dimension between the weft wires shorter than between the warp wires.
  • Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of non-circular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft 'knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially coextensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires.
  • Woven wirev fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being. of fiat substantially rectangular crosssection elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially co-extensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weftknuckles were formed about circular crosssection warp wires.
  • chines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of non-circular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially coextensive transversely with said elongated faces and extending substantially to the plane of the projected warp knuckles to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires.
  • Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of non-circular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially coextensive transversely withsaid elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires, the warp wires having greater strength than the weft wires whereby they control the weft wires during the weaving of the fabric.
  • Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially co-extensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires, the side surfaces of the projected warp knuckles defining two opposed sides of the water drainage passages through the fabric and forming substantially non-flaring passage between said opposed sides.
  • Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially co-extensive transversely with said v elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular crosssection warp wires, the side surfaces of the projected warp knuckles defining two opposed sides of the water drainage passages through the fabric and forming substantially non-flaring passage between said opposed sides, and with said increased weft knuckle surface contiguous to the plane of the projected warp k
  • Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric, and the'elongated faces each forming with the side faces a pair of spaced corners whereby the weft knuckles cross the elongated faces of the warp wires and are each bent about said spaced pair of corners and have their outer projected surfaces substantially coextensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular crosssection warp wires, the bending of the weft knuckles about said spaced corners substantially closing the surface of said weft wires beneath said knuckles to the
  • Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric and the elongated faces each forming with the side faces a pair of spaced corners whereby the weft knuckles cross the elongated faces of the warp wires and are each bent about said spaced pair of corners and have their outer projected surfaces substantially flat and co-extensive transversely with said elongated faces and extending substantially to the plane of the projected warp knuckles to

Description

H. G. SPECHT 2,003,123
WOVEN WIRE BELT FOR PAPER MAKING MACHINES May 28, 1935.
Filed June 22, 1954 I. i 1 I.
IN V EN TOR.
HHRRY E. EIFEEHT.
BY 1 W is ATTORNEY.
Patented May 28, 1935 UNITED STATES WOVEN WIRE BELT FOR PAPER MAKING MACHINES Harry G.' Specht, Montclair, N. L, assignor to Eastwood-Nealley Corporation, Belleville, N. 1., a corporation of New Jersey Application June 22, 1934, Serial No; 731,874
9 Claims.
The present invention relates to woven wire belts, particularly for paper making machines of the Fourdrinier type. These belts, as is well known, are in the form of a continuous band of fine wire mesh which moves over spaced supporting rolls and in contact with suction boxes and rolls. In modern machines the greater number of rolls, the increased width of the machines, and the increased speed at which the machines operate, have been such that belts which would stand up for a normal periodupon older types of machines fail in the modern machines due to fatigue brought'about by the belt being bent around the great number of rolls at highly increased speed. In order to provide strength and flexibility to meet these modern conditions wires have been woven with heavier sizes of wires in which the weft count was reduced because of the impossibility with these heavier sizes of obtaining of a fine beat up 'of the weft, with the result that the mesh openings became increasingly greater in the longitudinal direction of the wire. In an ordinary F'ourdrinier wire construction, standard wires are made of 60 to 100 mesh, the 60 mesh wire usually having 60 warp wires and IO-weft wires to the inch, and the 100 mesh wire having 100 warp wires and 86 warp wires to the inch, the intermediate sizes'being proportionate. While greater strength has been obtained a number of objections are inherent in these belts, among which may be mentioned the roughness of the paper formation surface which produces deep depressions in the paper, and the tendency of the fibres to turn down into the mesh openmgs.
It is highly desirable to provide a belt which will not only have increased wear surfaces, will to weave these with shoot or weft wires of circular cross-section, and which due to the flat shape and relative thinness of the warp may be beat up to a much finer mesh than has heretofore been possible with circular cross-section warp wires of the necessary strength and gauge.
While it has not been possible in the standard construction to beat a 60'mesh wire up finer than 50, due to warp and weft dimensions, it is possible according to my invention to beat a 60 mesh up to 80.
Heretofore the crimp of the weft wires when woven with circular cross-section warp wires, particularly where the warp count was high, was not great enoughto bring theweft knuckles up to or near the plane of the, warp knuckles, so that depressions were provided at the top side which produced roughness in the paper, and
at the wear side the weft knuckles would not provide any substantial wear surfaces, the wear being almost entirely confined to the warp knuckles. According to my invention the weft wires, due to the relativethinness of the warp wires as compared to the diameters of the weft wires will undergo less deformation in the crimping than does the more flexible warp, wires, and at the same time the knuckle surfaces may be brought in the plane of the warp, wire knuckles. Also these weft knuckles due to their being formed over flatwarp wires present substantially fiat paper contact and wear. surfaces, as distinguished from the point contact surfaces of weft knuckles when formed over circular cross-section warp wires, there beinga greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed aboutjcircular cross-section warp wires. 7
By providing both an increase 'in the number of knuckles andfiat knuckles a very greatly increased wearing surface is produced which will remain uniform throughout a longer wearing life.
The fibres of stock used in making paper, when running on a wire, tend to turn down into the mesh openings, particularly where the opening is longer in the longitudinal direction of the wire, causing an unevenness of the sheet, clogging of the drainage and loss of stock. This is also accentuated by the circular crosssection wires which provide a natural diverging entrance to the mesh openings. The finer beat up of the shoot wires permitted accord: ing to my invention and the flat surfaces of both the warp and shoot knuckles, overcomes these objections, the fibres being so supported that they bridge the mesh openings rather-than turn down into them as heretofore.
With the above and other objects in view, an embodiment of the invention is shown in the accompanying drawing, and this'embodiment will be hereinafter more fully, described with reference thereto, and the.invention will be finally pointed out in the claims.
In the drawing;
Fig. 1 is an enlarged plan view of a portion of a wire belt, according to the illustrated exemplary embodiment of my invention.
Fig. 2is a longitudinal sectional view, taken alongthe line 2-2 of Fig. 1.
Fig. 3 is a transverse sectional along the line 3-3 of Fig. 1.
view, 1 taken Similar reference characters indicate corresponding parts throughout the several figures of the drawing.
Referring to the drawing, the Fourdrinier wire, according to the exemplary embodiment shown therein, comprises warp wires IU of flat ribhon-like form, and weft wires ll of circular cross-section, the upwardly crimped knuckles of both the warp and weft wires providing the upper paper formation surface, and the downwardly bent knuckles providing thelower wearing surface. The warp wire is preferably a rolled or drawn bronze wire which is annealed before weaving, and the weft wires are preferably brass.
Bronze wire has a greater tensile strength under elongation than brass wire, and this factor is of importance in the successful weaving of the wire mesh according to my invention. In the proper weaving of the wire the warp should control or predominate the weft. The stronger warp wires permit of beating the weft wires up to a finer mesh, the flattened warp wires being highly flexible and directly taking the punishment and strain necessary in this operation. The weft wires, which are shaped by and follow the actionof the warp wires, only indirectly take the strain imposed by the beating up operation, and should notvbe such as to overcome the predominance or control ofthe warp wires. Where both the warp and weft are of the same material, as for instance when they are both of brass, this control is lost, as neither the warp nor the weft will predominate over the other. Other material than bronze and brass may be used for'the warp and weft, as for instance stainless steel for the warp and bronze or brass for the weft.
The dimensions of the warp wire are proportioned with respect to the weft wire diameter, the width being such as to provide a relatively wide paper formation and wear surface andthe thickness being such as to permit a fine beat up of the weft, and at the same time allow the knuckles of the weft, with a lesser deformation in the crimping of the weft than in the warp, to come into or very-close to the plane of the warp knuckles. For instance with a .009of an inch diameter weft the width of the warp may be .012 of an inch and the thickness .004 of an inch. The relative thinness of the flat warp wires, it will be seen, allows beating up a large number of weft wires per inch, while their relative width gives an area equivalent to or greater than that of the largest round warp wire permissible. The edges of the warp wires are preferably slightly rounded to allow free drainage through the, mesh openings.
The flat knuckles of the warp as wellas the fiat knuckles of the weft producea paper formation surface in which the fibres willbe supported by fiat contact, as distinguished from the point contact with wires having. circular cross-section warp and weft. At the same time the fine beat upof the weft provides a smooth surface which will support the paper stock without the usual tendency, to turn down into the mesh and clog it. Without sacrificing this.
support the mesh openings may be of adequate size to provide full drainage.
The fine beatup of the weft also disposes more knuckles on the wear side and as these have flat surfaces the wearing life will not only be greatly increased but the wear will be substantially uniform throughout the life of the wire. The knuckles of wires formed with circular cross-section warp and weft wires have point contact when first in use so that there is a very rapid wear during the beginning of the run of the wire. The wire according to a preferred embodiment of my invention has flat knuckles both in the warp and the weft, the latter being produced by their being crimped over the flat surfaces of the 'warp. By crimping the weft knuckles over the flat surfaces of the warp, the bending being about the spaced corners formed between the fiat top and bottom surfaces and the side surfaces, substantially flat weft knuckles are produced having a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be 'the case if the weft knuckles were formed about circular cross-section.warp wires.
The flat warp wires while providing a much greater tensile strength are at the same time more flexible than circular cross-section warp wires, so that they may be operated at high' speed. over rolls for a considerably greater time than heretofore before fatigue sets in.
While the mesh openings are shown as ap-,
proximately square it will be understood that by reason of the fine beat up of the weft permitted by my invention these openings may have a dimension between the weft wires shorter than between the warp wires.
I have illustrated and described a preferred and satisfactory embodiment of my invention,
but it will be obvious that changes may be made therein, within the spirit and scope thereof, as defined in the appended claims.
Having thus described my invention what I claim and desire to secure by Letters Patent 1. Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of non-circular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft 'knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially coextensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires.
2. Woven wirev fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being. of fiat substantially rectangular crosssection elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially co-extensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weftknuckles were formed about circular crosssection warp wires.
chines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of non-circular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially coextensive transversely with said elongated faces and extending substantially to the plane of the projected warp knuckles to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires.
5. Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of non-circular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially coextensive transversely withsaid elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires, the warp wires having greater strength than the weft wires whereby they control the weft wires during the weaving of the fabric.
6. Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially co-extensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular cross-section warp wires, the side surfaces of the projected warp knuckles defining two opposed sides of the water drainage passages through the fabric and forming substantially non-flaring passage between said opposed sides.
7. Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric whereby the weft knuckles cross the elongated faces of the warp wires and have their outer projected surfaces substantially co-extensive transversely with said v elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular crosssection warp wires, the side surfaces of the projected warp knuckles defining two opposed sides of the water drainage passages through the fabric and forming substantially non-flaring passage between said opposed sides, and with said increased weft knuckle surface contiguous to the plane of the projected warp knuckles decreasing the lateral area of the drainage passages contiguous to said plane of the projected warp knuckles.
8. Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric, and the'elongated faces each forming with the side faces a pair of spaced corners whereby the weft knuckles cross the elongated faces of the warp wires and are each bent about said spaced pair of corners and have their outer projected surfaces substantially coextensive transversely with said elongated faces to present a greater weft knuckle surface contiguous to the plane of the projected warp knuckles than would be the case if the weft knuckles were formed about circular crosssection warp wires, the bending of the weft knuckles about said spaced corners substantially closing the surface of said weft wires beneath said knuckles to the entrance of paper fibres and corrosive agents.
- 9. Woven wire fabric for paper making machines comprising interwoven warp and weft wires with knuckles produced in both the warp and weft wires, the warp wires throughout their length being of flat substantially rectangular cross-section elongated in one dimension, said elongated dimension being parallel to the plane of the woven wire fabric and the elongated faces each forming with the side faces a pair of spaced corners whereby the weft knuckles cross the elongated faces of the warp wires and are each bent about said spaced pair of corners and have their outer projected surfaces substantially flat and co-extensive transversely with said elongated faces and extending substantially to the plane of the projected warp knuckles to
US731874A 1934-06-22 1934-06-22 Woven wire belt for paper making machines Expired - Lifetime US2003123A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
US731874A US2003123A (en) 1934-06-22 1934-06-22 Woven wire belt for paper making machines

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
US731874A US2003123A (en) 1934-06-22 1934-06-22 Woven wire belt for paper making machines

Publications (1)

Publication Number Publication Date
US2003123A true US2003123A (en) 1935-05-28

Family

ID=24941286

Family Applications (1)

Application Number Title Priority Date Filing Date
US731874A Expired - Lifetime US2003123A (en) 1934-06-22 1934-06-22 Woven wire belt for paper making machines

Country Status (1)

Country Link
US (1) US2003123A (en)

Cited By (14)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2992681A (en) * 1955-09-22 1961-07-18 Beloit Iron Works Paper machine forming wire
US4142557A (en) * 1977-03-28 1979-03-06 Albany International Corp. Synthetic papermaking fabric with rectangular threads
US5613527A (en) * 1992-08-25 1997-03-25 Siebtuchfabrik Ag Forming screen having flattened cross threads
USD421198S (en) * 1999-05-10 2000-02-29 Charles Craft, Inc. Towel with cross-stitch area
US6189577B1 (en) * 1990-06-06 2001-02-20 Astenjohnson, Inc. Papermakers fabric with stacked machine direction yarns
US20030139997A1 (en) * 2001-12-17 2003-07-24 Espeed, Inc. Systems and methods for automated commission processing
US20030222032A1 (en) * 2002-05-29 2003-12-04 Rudiger Tueshaus Filtering screen construction and methods
US20060080222A1 (en) * 2004-08-27 2006-04-13 Lutnick Howard W Systems and methods for commission allocation
US20080023096A1 (en) * 2006-07-25 2008-01-31 John Ding Dryer fabric
US20090061708A1 (en) * 2007-08-31 2009-03-05 Global Materials Technologies, Inc. Woven wire mesh
USD811751S1 (en) * 2016-03-04 2018-03-06 Gsc Technologies Corporation Thermoplastic wicker panel
USD811750S1 (en) * 2016-03-04 2018-03-06 Gsc Technologies Corporation Thermoplastic wicker panel
USD858111S1 (en) * 2016-03-04 2019-09-03 Gsc Technologies Corporation Thermoplastic wicker panel
USD864494S1 (en) * 2016-06-08 2019-10-22 J&L Wire Cloth, LLC Agricultural flooring

Cited By (16)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2992681A (en) * 1955-09-22 1961-07-18 Beloit Iron Works Paper machine forming wire
US4142557A (en) * 1977-03-28 1979-03-06 Albany International Corp. Synthetic papermaking fabric with rectangular threads
US6189577B1 (en) * 1990-06-06 2001-02-20 Astenjohnson, Inc. Papermakers fabric with stacked machine direction yarns
US5613527A (en) * 1992-08-25 1997-03-25 Siebtuchfabrik Ag Forming screen having flattened cross threads
USD421198S (en) * 1999-05-10 2000-02-29 Charles Craft, Inc. Towel with cross-stitch area
US20030139997A1 (en) * 2001-12-17 2003-07-24 Espeed, Inc. Systems and methods for automated commission processing
US20030222032A1 (en) * 2002-05-29 2003-12-04 Rudiger Tueshaus Filtering screen construction and methods
US20060000786A1 (en) * 2002-05-29 2006-01-05 Ruediger Tueshaus Filtering screen construction and methods
US20060080222A1 (en) * 2004-08-27 2006-04-13 Lutnick Howard W Systems and methods for commission allocation
US20080023096A1 (en) * 2006-07-25 2008-01-31 John Ding Dryer fabric
US7617846B2 (en) * 2006-07-25 2009-11-17 Albany International Corp. Industrial fabric, and method of making thereof
US20090061708A1 (en) * 2007-08-31 2009-03-05 Global Materials Technologies, Inc. Woven wire mesh
USD811751S1 (en) * 2016-03-04 2018-03-06 Gsc Technologies Corporation Thermoplastic wicker panel
USD811750S1 (en) * 2016-03-04 2018-03-06 Gsc Technologies Corporation Thermoplastic wicker panel
USD858111S1 (en) * 2016-03-04 2019-09-03 Gsc Technologies Corporation Thermoplastic wicker panel
USD864494S1 (en) * 2016-06-08 2019-10-22 J&L Wire Cloth, LLC Agricultural flooring

Similar Documents

Publication Publication Date Title
US2003123A (en) Woven wire belt for paper making machines
US4142557A (en) Synthetic papermaking fabric with rectangular threads
US2269869A (en) Woven wire belt for papermaking machines
US4314589A (en) Duplex forming fabric
US3143150A (en) Fabric for fourdrinier machines
US3167281A (en) Fourdrinier wire cloth
US3139119A (en) Fourdrinier fabric
US2088447A (en) Woven wire belt for paper making machines
US2088448A (en) Woven wire belt for paper making machines
US3216893A (en) Screen fabric for making forming wires for paper machines
US3162567A (en) Papermaking machine forming member
US2132252A (en) Woven wire belt for paper making machines
US2088449A (en) Woven wire belt for paper making machines
US3632068A (en) Woven wire fabric
US2003124A (en) Woven wire belt for paper making machines
EP0010311B1 (en) Paper forming fabric
US1927498A (en) Belt for fourdrinier machines
US2122592A (en) Woven wire belt for paper making machines
US2992681A (en) Paper machine forming wire
US3211606A (en) Paper making wire
US600352A (en) Making-wire for paper-making machines
US2207609A (en) Multiple strand selvage
US2062773A (en) Wire cloth
US3146801A (en) Fourdrinier wire and method of making the same
US2292411A (en) Woven wire belt for fourdrinier machines