Photographic label for reproduction of fine print

Claim 2

A photographic label comprising a pragmatic polymer sheet, at least one layer comprising at least one image forming layer comprising photosensitive silver halide grains and dye forming coupler above said pragmatic polymer sheet, wherein said at least one image forming layer has an exposure time to obtain a usable Dmax of 1.5 of less than 0.01 seconds, wherein said at least one image forming layer is substantially free of image dye stabilizers, and wherein said polymer sheet has an L* of greater than 95.

Claim 3

The photographic label of claim 1 wherein said label comprises a total silver content of greater than 4.6 milligrams per square meter.

Claim 4

The photographic label of claim 1 wherein said photosensitive silver halide grains are doped with at least one member selected from the group consisting of Fe, Co, Ni, Ru, Rh, Pd, Os, Re, and Ir.

Claim 5

The photographic label of claim 1 wherein said photosensitive silver halide grains are doped with at least one member selected from the group consisting of Os, Re, and Ir.

Claim 6

The photographic label of claim 1 wherein said silver halide grains comprise a combination of Re and Ir dopants.

Claim 7

The photographic label of claim 1 wherein said photographic label is substantially free of ultraviolet absorbers.

Claim 8

The photographic label of claim 1 wherein said label is substantially free of blue pigment.

Claim 9

The photographic label of claim 1 wherein said at least one image forming layer comprises blue pigment with a particle size of less than 0.1 micrometers.

Claim 10

The photographic label of claim 1 wherein said at least one image forming layer comprises blue pigment with a particle size of between 0.001 and 0.12 micrometers.

Claim 11

The photographic label of claim 1 further comprising at least one subbing layer between said pragmatic sheet and said at least one image forming layer.

Claim 12

The photographic label of claim 1 wherein said polymer sheet comprises an upper emulsion adhesive layer comprising polyethylene.

Claim 13

The photographic label of claim 1 wherein said polymer sheet comprises titanium dioxide in a layer immediately below the upper surface.

Claim 14

The photographic label of claim 12 wherein said titanium dioxide comprises between 18 and 50% by weight of said polymer layer comprising titanium dioxide.

Claim 15

The photographic label of claim 1 wherein said polymer sheet comprises voids in a layer thickness of 35 to 75 micrometers.

Claim 16

The photographic label of claim 1 wherein said polymer sheet has a stiffness of between 8 and 24 millinewtons.

Claim 17

The photographic label of claim 1 wherein the gelatin containing layers have a stiffness between 1 and 4 millinewtons.

Claim 18

The photographic label of claim 1 wherein said label has a stiffness of between 8 and 20 millinewtons.

Claim 19

The photographic label of claim 1 wherein said polymer sheet comprises polyester.

Claim 20

The photographic label of claim 18 wherein said polymer sheet comprises at least one layer having titanium dioxide present in an amount of between 24 and 50% by weight.

Claim 21

The photographic label of claim 1 wherein said photographic label has a barcode quality when developed of between “A” and “B” level.

Claim 22

The photographic label of claim 1 wherein said label has a gelatin content of between 45 and 55 grams per m 2 .

Claim 23

The photographic label of claim 6 wherein said label has a gelatin content of between 40 and 50 grams per m 2 .

Claim 24

The photographic label of claim 1 wherein said label comprises an image forming layer comprising at least one cyan dye forming couplers comprising

Claim 25

The photographic label of claim 23 wherein said label comprises an image forming layer comprising a magenta dye forming coupler comprising

Claim 26

The photographic label of claim 24 wherein said label comprises an image forming layer comprising a yellow dye forming coupler comprising

Claim 27

The photographic label of claim 23 wherein said label comprises an image forming layer comprising a magenta dye forming coupler comprising and an image forming layer comprising a yellow dye forming coupler comprising

Claim 28

The photographic label of claim 1 further comprising a fourth additional light sensitive silver halide imaging layer having associated therewith an image dye-forming coupler for which the normalized spectral transmission density distribution curve of the dye formed by said image dye-forming coupler upon reaction with color developer has a CIELAB hue angle, h ab , from 225 to 310° or from not less than 355 to not more than 75°.

Claim 29

The photographic label of claim 1 further comprising a fourth light sensitive silver halide imaging layer having associated therewith a fourth image dye-forming coupler for which the normalized spectral transmission density distribution curve of the dye formed by the fourth image dye-forming coupler upon reaction with color developer has a CIELAB hue angle, h ab , from 225 to 310°, and a fifth light sensitive silver halide imaging layer having associated therewith a fifth image dye-forming coupler for which the normalized spectral transmission density distribution curve of the dye formed by the fifth image dye-forming coupler upon reaction with color developer has a CIELAB hue angle, h ab , from not less than 355 to not more than 75°.

Claim 30

The photographic label of claim 1 wherein said silver halide grains comprise a radiation-sensitive emulsion comprised of silver halide grains (a) containing greater than 50 mole percent chloride, based on silver, (b) having greater than 50 percent of their surface area provided by {100} crystal faces, and (c) having a central portion accounting for up to 99 percent of total silver and containing a first dopant of Formula (I) and a second dopant of Formula (II): [ML 6 ] n (I) wherein n is zero, −1, −2, −3 or −4, M is a filled frontier orbital polyvalent metal ion, other than iridium, and L 6 represents bridging ligands which can be independently selected, provided that at least four of the ligands are anionic ligands, and at least one of the ligands is a cyano ligand or a ligand more electronegative than a cyano ligand; [TE 4 (NZ)E′] r (II) wherein T is Os or Ru, E 4 represents bridging ligands which can be independently selected, E′ is E or NZ, r is zero, −1, −2 or −3, and Z is oxygen or sulfur, wherein the silver halide grains have an average equivalent spherical diameter of less than 0.9 micrometer, the dopant of Formula (II) is located within an inner core of the grains comprising up to 60 percent of the total silver, and the dopant of Formula (I) is located in an outer dopant band which is separated from the inner core by at least 10 percent of the total silver.

Claim 31

The photographic label of claim 1 wherein said silver halide grains comprise at least one radiation-sensitive silver halide emulsion layer icomprising silver halide grains containing greater than 50 mole percent chloride, based on silver, and having greater than 50 percent of their surface area provided by {100} crystal faces, wherein (i) a first fraction which comprises from 10-90 wt % of the silver halide grains, based on total radiation-sensitive silver halide in the layer, consists of grains which have a central portion accounting for up to 99 percent of total silver which contains at least 10 −7 mole of a hexacoordination metal complex which satisfies formula (I) per mole of silver and less than 10 −10 mole of a hexacoordination metal complex which satisfies formula (II) per mole of silver, and (ii) a second fraction which comprises from 10-90 wt % of the silver halide grains, based on total radiation-sensitive silver halide in the layer, consists of grains which have a central portion accounting for up to 99 percent of total silver which contains at least 10 −10 mole of a hexacoordination metal complex which satisfies the formula (II) per mole of silver and less than 10 −7 mole of a hexacoordination metal complex which satisfies the formula (I) per mole of silver: [ML 6 ] n (I) wherein n is zero, −1, −2, −3 or −4, M is a filled frontier orbital polyvalent metal ion, other than iridium, and L 6 represents bridging ligands which can be independently selected, provided that at least four of the ligands are anionic ligands, and at least one of the ligands is a cyano ligand or a ligand more electronegative than a cyano ligand; [TE 4 (NZ)E′] r (II) where T is a Os or Ru; E 4 represents bridging ligands which can be independently selected; E′ is E or NZ; r is zero, −1, −2 or −3; and Z is oxygen or sulfur.

Claim 32

The photographic label of claim 1 wherein said silver halide grains comprise a radiation-sensitive emulsion comprised of silver halide grains (a) containing greater than 50 mole percent chloride, based on silver, (b) having greater than 50 percent of their surface area provided by {100} crystal faces, and (c) having a central portion accounting for up to 99 percent of total silver and containing a first dopant of Formula (I): [ML 6 ] n (I) wherein n is zero, −1, −2, −3 or −4, M is a filled frontier orbital polyvalent metal ion, other than iridium, and L 6 represents bridging ligands which can be independently selected, provided that at least four of the ligands are anionic ligands, and at least one of the ligands is a cyano ligand or a ligand more electronegative than a cyano ligand, wherein a second dopant comprising an iridium coordination complex having ligands each of which are more electropositive than a cyano ligand is located together with the first dopant in a common dopant band within the central portion of the silver halide grains.