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Title:
SEMICONDUCTOR INSTALLATION, CONTAINING AT-LEAST ALSO A LONG NARROW SEMICONDUCTOR SUBSTRATE TRANSFER / PROCESSING TUNNEL-ARRANGEMENT TO DURING ITS OPERATION THE UNINTERRUPTEDLY TAKING PLACE OF A TOTAL SEMICONDUCTOR PROCESSING / TREATMENT- PROCESS OF THE THEREIN DISPLACING SEMICONDUCTOR SUBSTRATES
Document Type and Number:
WIPO Patent Application WO/2011/145918
Kind Code:
A1
Abstract:
The invention relates to a semiconductor installation, containing at-least also a long, relatively small semiconductor substrate transfer/processing tunnel-arrangement, wherin during its operation the at-least also taking place of successive semiconductor processings of the successive semiconductor substrate-sections, typically almost uninterruptedly displacing there through, on behalf of in the exit-section of this installation by means of dividing thereof the accomplishing of semiconductor chips.

Inventors:
BOK EDWARD (NL)
Application Number:
PCT/NL2010/000081
Publication Date:
November 24, 2011
Filing Date:
May 18, 2010
Export Citation:
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Assignee:
BOK EDWARD (NL)
International Classes:
H01L21/677
Foreign References:
US4587002A1986-05-06
Other References:
None
Download PDF:
Claims:
C L A I M S

1. Semiconductor installation, executed that way, that it contains a semiconductor substrate transfer/processing tunnel-arrangement and thereby during the operation of this bunnel-arrangement the at-least almost continuously

taking place of an at-least almost uninterruptedly

displacing therethrough of successive, joining semiconductor substrate-sections on behalf of the therein taking place of also a series of semiconductor processings thereof.

2. Semiconductor installation according to Claim 1, characterized, that it in addition is executed such and containing such means, that thereby in this semiconductor tunnel-arrangement the taking place of such a great number of semiconductor processings of these successive substrate- sections, that in a behind thereof located device by means of separation thereof the accomplishing of semiconductor chips .

3. Semiconductor installation according to one of the foregoing Claims, characterized that way, that it is executed such, that thereby the width of such semiconductor tunnel-arrangement thereof is less than 2 meters.

A. Semiconductor installation according to one of the foregoing Claims, characterized that way, that thereby such a therein located tunnel-arrangement at-least also

contains successive semiconductor processing-sections on behalf of the therein during its operation the uninterruptedly taking place of successive semiconductor processings of the successive substrate-sections, uninterruptedly displacing therethrough.

5. Semiconductor installation according to Claim 4, characterized that way, that it is further executed such and containing such means, that thereby in such tunnel- arrangement thereof the at-least almost uninterruptedly displacing therethrough of successive sections of an uninterrupted folio as an at-least temporary semiconductor underlayer of these successive semiconductor substrate- sections .

6. Semiconductor installation according to Claim 5, characterized that way and further executed such, that this folio consists of at-least one substance on behalf of its functioning as such an at-least temporary semiconductor underlayer.

7. Semiconductor installation according to Claim 6, characterized that way and further is executed such, that this folio thereby at-least consists of a metallic

substance.

8. Semiconductor installation according to Claim 6, characterized that way and executed such, that this folio thereby at-least also consists of a synthetic substance.

9. Semiconductor installation according to one of the foregoing Claims, characterized that way and containing further such means, that thereby in a device behind the therein located semiconductor tunnel-arrangement by means of dividing these successive semiconductor substrate- sections the establishing of semiconductor chips with such a semiconductor underlayer thereof.

10. Semiconductor installation according to Claim 6, characterized that way and further containing sych means, that thereby in a device behind the therein located

semiconductor tunnel-arrangement by means of dividing these successive semiconductor substrate-sections the accompli- shing of semiconductor chips with at-least a synthetic underlayer and a di-electric toplayer.

11. Semiconductor installation according to one of the foregoing Claims, characterized that way and further executed such, that thereby the thickness of such folio is less than 0,2 mm.

12. Semiconductor installation according to Claim 11, characterized that way and further is executed such, that thereby the tunnel-passage of such semiconductor tunnel- arrangement only to a small extent is wider than the breadth of such folio.

13. Semiconductor installation according to one of the foregoing Claims, characterized that way and further executed such, that thereby the application of a folio with at-least almost parallel upward sidewalls thereof.

14. Semiconductor installation according to one of the foregoing Claims, characterized that way and further is executed such, that thereby therein the location of a device on behalf of the availability of such a very long folio, that during a very long time an uninterrupted lineair displacement of the successive sections is taking place through such semiconductor tunnel-arrangement.

15. Semiconductor installation according to Claim 14, characterized that way and further is executed such, that thereby the application of a folio storage-roll .

16. Semiconductor installation according to one of the foregoing Claims, characterized that way and containing such means, that thereby the duration of time of such an uninterrupted displacement of these successive folio- sections through almost all semiconductor processing- sections of such semiconductor tunnel-arrangement amounts at-least 2 months.

17. Semiconductor installation according to one of the foregoung Claims, characterized that way and containing such means, that thereby the velocity of displacement of the successive substrate-sections through such semiconductor tunnel-arrangement is less than 3 mm per second.

18. Semiconductor installation according to one of the foregoing Claims, characterized that way and further is executed such, that thereby such semiconductor tunnel- arrangement, containing at-least also an upper- and lower- tunnelblock, uninterruptedly extends in the lineair

displacement-direction of these successive semiconductor substrate-sections, displacing therethrough.

19. Semiconductor installation according to Claim 18, characterized that way and further containing such means, that thereby the passage-way of such semiconductor

tunnel-arrangement for the successive semiconductor

substrate-sections, displacing therethrough during its operation, only at the entrance- and exit-side thereof is in an open connection with the atmospheric outer air under the appliance of a gaseous medium-lock at at-least the entrance-side thereof.

20. Semiconductor installation according to one of the foregoing Claims, characterized that way and further is executed such, that thereby behind the exit of the therein located semiconductor tunnel-arrangement the insertion of a device on behalf of therein at-least by means of

dividing the successive, therein uninterruptedly displacing semiconductor processed semiconductor substrate-sections the accomplishing of semiconductor chips.

21. Semiconductor installation according to one of the foregoing Claims, characterized that way and further containing such means, that thereby therein the taking place of government of at-least also the successive semiconductor processings in such a semiconducor tunnel- arrangement and the therein located semiconductor substrate transfer-system on behalf of an at-least almost uninterrupted uniform displacement of the successive semiconductor substrate-sections therethrough.

22. Semiconductor installation according to Claim 21, characterized that way and further containing such means, that thereby for that purpose in at-least the end-section of such tunnel-arrangement the continuously exercising of a tractive-power upon the successive semiconductor

substrate-sections, displacing therethrough.

23. Semiconducror installation according to one of the foregoing Claims, characterized that way and further containing means on behalf of in the exit-section of such therein located semiconductor tunnel-arrangement at-least the also taking place of removal therefrom of the

successive folio-sections as a temporary semiconductor underlayer of the therein accomplished semiconductor substrate-sections .

24. Semiconductor installation according to Claim 23, characterized that way and thereto further containing such means, that thereby in the entrance-section of this semiconductor tunnel-arrangement the taking place of the application of a micro-high film of a fluidic stitch- substance, with a high boiling-temperature thereof on behalf of the temporary in this tunnel-arrangement

taking place of a temporary anchorage upon this folio of the successive, therein accomplished semiconductor

substrate-sections.

25. Semiconductor installation as in one of the foregoing Claims, characterized that way and further executed such, that for that purpose in the exit-section of this semiconductor tunnel-arrangement the location of a

discharge-roll on behalf of the displacement in at-least downward direction of the from the in a lineair direction displacing semiconductor substrate-sections successively removed folio-sections.

26. Semiconductor installation according to Claim 25, characterized in that way, that thereby in a device behind this roll-arrangement by means of dividing of the removed semiconductor substrate-sections the accomplishing of semiconductor chips with typically a di-electric under- layer thereof.

27. Semiconductor installation according to Claim 25, characterized. that way and further executed such, that it also contains a storage-roll for these successively removed folio-sections, with in-between this discharge- roll arrangement and this storage-roll arrangement the location of a cleaning device for these successive folio- sections, displacing therethrough.

28. Semiconductor installation according to Claim 25, characterized in that way and further executed such, that thereby therein the location of a roll-arrangement at the entrance-side of such semiconductor tunnel-arrangement on behalf of the thereby functioning of the successive, uninterruptedly through this tunnel-arrangement displacing folio-sections as an uninterrupted semiconductor support/ transfer-band.

29. Semiconductor installation according to Claim 28, characterized that way and further executed such, that as thereby underneath this tunnel-arrangement in-between these two roll-arrangements at-least also the insertion of a cleaning-device on behalf of the therein taking place of cleaning these successive semiconductor band-sections, uninterruptedly displacing therethrough.

30. Semiconductor installation according to Claim 29, characterized in that way and further containing such means, that thereby during the operation of this tunnel- arrangement this metallic semiconductor substrate support/ transfer-band functioning on behalf of the therewith displacing of successive semiconductor substrate-sections through this tunnel-arrangement as a temporary semiconductor under- layer of these successive semiconductor substrate-sections.

31. Semiconductor installation according to Claim 30, characterized that way and further executed such, that thereby the central semiconductor processing-section of this band has been deepened on behalf of the therein during the operation thereof at-least the taking place of

erection of successive semiconductor substrate-sections.

32. Semiconductor installation according to Claims 30/31 , characterized in that way and further executed such, that thereby underneath this tunnel-arrangement between these two roll-arrangements behind the therein located cleaning- device on behalf of the cleaning of the successive,

uninterruptedly displacing semiconductor band-sections theretrough, the location of a device on behalf of at at- least the central semiconductor processing-section thereof establishing of a micrometer high film of a fluidic high- boiling stitchsubstance on behalf of the during the

displacing of the successive sections of the substrate support/transfer-band through this tunnel-arrangement thereby to a sufficient degree such an at-least temporary anchorage thereupon of the therein established successive semiconductor substrate-sections, that in a device behind this tunnel-arrangement the possible taking place of

separation of these successive semiconductor substrate- sections from the successive band-sections.

33. Semiconductor installation according to Claim 32, characterized in that way and further containing such means, that thereby in this semiconductor tunnel-arrangement in its begin-section upon this layer of such a temporary stitch-substance the taking place of establishing a

semiconductor underlayer for these successive semiconductor substrate-sections.

34. Semiconductor installation according to Claim 33, characterized in that way and in addition contains such means, that thereby for this semiconductor underlayer the possible appliance of any thereto suitable semiconductor substance.

35. Semiconductor installation according to Claim 34, characterized in that way and in addition containing such means, that thereby for these substances of the semiconductor underlayer the appliance of the combination of a

number of upon each other located together-stitched

semiconductor layers, consisting of at-least also additional semiconductor substances.

36. Semiconductor installation according to Claim 35, characterized in that way and consisting of such means, that thereby for this underlayer in this semiconductor tunnel- arrangement the establishing of a micrometer high dielectric substance.

37. Semiconductor installation according to Claim 35, characterized in that way and further containing such means, that thereby for this underlayer in this semiconduc- tor tunnel-arrangement the establishing of a micrometer high metallic substance.

38. Semiconductor installation according to one of the foregoing Claims, characterized in that way and containing such means, that thereby near the entrance of the therein located semiconductor tunnel-arrangement the location of a storage-roll for the temporary storage of a very long folio, with during the operation of the tunnel-arrangement the uninterruptedly taking place- of at the entrance-side

thereof applying of successive folio-sections as an at- least temporary semiconductor underlayer of these ·

successive, therethrough displacing semiconductor substrate sections, upon the central semiconductor processing- section of the successive, already uninterruptedly semiconductor substrate suppor t/transfer-bandsec t ions .

39. Semiconductor installation according to Claim 38, characterized that way and further containing such means, that thereby the material for this folio consists of at- least a synthetic substance.

40. Semiconductor installation according to Claim 38, characterized that way and further containing such means, that thereby the material for this folio at-least also consists of a soft metallic substance.

41. Semiconductor installation according to one of the foregoing Claims, characterized in that way and in

addition containing such means, that this folio thereby consists of a number of different semiconductot substances.

42. Semiconductor installation according to one of the foregoing Claims, characterized in that way and in

addition contains such means, that thereby in the entrance- section of the therein located semiconductor tunnel- arrangement the uninterruptedly taking place of the

establishing of a number of upon each other located

micrometer high di-electrical substances upon the successive semiconductor folio-sections, uninterruptedly

displacing therethrough.

43. semiconductor installation according to Claim 42, characterized that way and further executed such, that thereby in thereupon following strip-shaped upper

semiconductor processing split-sections at the central semiconductor processing-section of this tunnel- arrangement the thereupon taking place of all following establishings of semiconductor layers and primary

semiconductor processings to accomplish such successive semiconductor substrate-sections, that out of that in a device behind the exit thereof by means of dividing of these substrate-sections the establishing of semiconductor chips .

44. Semiconductor installation according to Claim 43, characterized that way and in addition contains such means, that thereby under the application of such an uninterrupted semiconductor substrate support/transfer-band the thereupon accomplished bottom-layer not to such extent is stitched thereupon, that thereby after all these having taken place successive semiconductor establishings and

- processings in this device the taking place of

separation of the semiconductor top-layer, including this semiconductor bottom-layer, as successive semiconductor substrate-sections from this band, after-which by means of dividing this semiconductor top-layer the accomplishing of semiconductor chips with this di-electric bottom- layer.

45. Semiconductor installation according to Claim 38, characterized that way and further is executed such, that thereby the vertical sidewalls of such deepened flat upperwall-section of this band, as seen in both the

length- as height-direction, also at-least almost are flat and these sidewalls also are almost parallel with both upward sidewalls of this band.

46. Semiconductor installation according to Claim 45, characterized that way and further containing such means, that as thereby during the operation of this tunnel- arrangement the uninterruptedly displacing therethrough of the successive band-sections, with thereupon successive sections of an uninterrupted folio, the thereby maintaining of an at-least almost parallel position of the upward sidewalls of the folio-sections with the therewith

corresponding upward sidewalls of the tunnel-passage.

47. Semiconductor installation according to Claim 46, characterized that way and in addition containing such means, that thereby by means of successive flows of gasous medium along at-least also this folio, the uninterruptedly maintaining of the following:

a) conducting of this band along an upward sidewall of the tunnel-passage; and

b) reclining of the successive folio-sections with one

upward sidewall thereof against the therewith

corresponding upward sidewall of this deepened

upperwall-section of this band.

48. Semiconductor installation according to one of the foregoing Claims, characterized that way and containing such means, that thereby in the semiconductor tunnel-arrangement, contained therein, during the in a strip-chaped upper processing-section thereof uninterruptedly taking place of a heating-process of the semiconductor toplayer-section of the successive, uninterruptedly underneath thereof displacing substrate-sections, the preventage of an unallowable

deformation thereof in at-least its transverse direction.

49. Semiconductor installation according to Claim 48, characterized that way and containing such means, that thereby in such heating-processingsection in the lower wall of the uppertunnelblock the location of an electric strip- shaped heating-element, with a micrometer breadth thereof on behalf of the therewith during a very short time the heating of only mainly a micrometer high layer of an established semiconductor substance, as for instance a dielectric layer.

50. Semiconducror installation according to Claim 49, characterized that way and further executed such, that thereby in the length-direction beyond thereof in this block the location of an also strip-shaped cooling-section.

51. Semiconductor installation according to one of the foregoing Claims, characterized that way, executed such and containing such means, that thereby in such semiconduc- tor tunnel-arrangement thereof the uninterruptedly taking place of the establishing of at-least one semiconductor top-layer upon the semiconductor band-sections, during its operation uninterruptedly displacing therethrough, and whereby at-least also the following:

a) an allowable deformation thereof during such semiconductor processing-process; and

b) a small acceptable expansion of these successive

semiconductor substrate-sections in the length-direction of the tunnel-passage during their lineaair displace- ment therethrough.

52. Semiconductor installation according to Claim 51, characterized that way and executed such, that thereby this band a very thin semiconductor folio is.

53. Semiconductot installation according to Claim 51, tharacterized that way and further executed such, that thereby this band is such an uninterrupted metallic

semiconductor substrate support/transfer-band.

54. Semiconductor installation according to Claim 51, characterized that way and further executed such, that thereby for such successive semiconductor toplayer- section only the requirement of typically only one strip- shaped lightning-device to establish a lightning- pattern, if thereby the application of only one common semiconductor top-layer.

55. Semiconductor installation according to Claim 51, characterized that way and containing such means, that thereby in such semiconductor tunnel-arrangement thereof the accomplishing of a number of upon each other positioned semiconductor main layers, with in-between a dielectric layer, containing some metallic inner-connections therefor .

56. Semiconductor installation according to one of the foregoing Claims, characterized such and further containing such means, that thereby by means of a strip-shaped supply- device for a lightning-pattern, located in its upper- tunnelblock of the therein located semiconductor tunnel- arrangement, the taking place of the applying of a strip- shaped lightning-pattern upon the successive, underneath thereof displacing semiconductor substrate-sections.

57. Semiconductor installation according to Claim 56, characterized that way and further executed such, that thereby in both transverse ends of such semiconductor band or - folio the establishing of successive recesses on behalf of by means of this band or folio the also

displacing therewith of this apply ing-de vice of such lightning-pattern during the lightning-process.

58. Semiconductor installation according to one of the foregoing Claims, characterized that way and further containing such means, that thereby after the joining of another semiconductor folio with the back-side of the already through the semiconductor tunnel-arrangement displacing folio, thereafter upon at-least one place a stitch-connection in-between thereof is accomplished and on-which the use of any type of already commonly used stitch-method, as for instance the establishing of a weld-connection or melting-together of both folio-ends.

59. Semiconductor installation according to one of the foregoing Claims, characterized that way, further

executed such and containing such means, that in the therein located semiconductor tunnel-arrangement during its operation the taking place of all required semiconductor appliances of - substances and - processings of the successive semiconductor substrate-sections, uninterruptedly displacing therethrough, and after the displacement thereof out of this tunnel-arrangement . through its exit-side, in a thereafter located device-combination at- first the taking place of removal of this layer fluidic guidance-medium therefrom and thereupon therein the taking place of dividing of these successive semiconductor substrate-sections under the accomplishing of semiconduc- tor chips.

60. Semiconductor installation according to Claim 59, characterized that way, that it further contains such means, that as thereby in this tunnel-arrangement during its operation the therein taking place of an uninterrup- tedly displacing therethrough of a folio from a folio storage-roll, thereby the successive folio-sections functioning as a definite semiconductor bottom-layer of the therein established semiconductor substrate-sections and whereby in a device behind this tunnel-exit by means of at-least also a dividing thereof the accomplishing of semiconductor chips with a folio-part as their semiconductor bottom-layer.

61. Semiconductor installation according to Claim 59, characterized that way and further containing such means, that as thereby in this tunnel-arrangement during its operation the therein taking place of an uninterrupted displacement of an uninterrupted semiconductor folio, derived from a folio storage-roll, with thereupon at at-least the central semiconductor processing-section thereof in the begin-section of the tunnel-pasage the application thereupon of a micrometer high layer of a fluidic temporary stitch-medium and there-upon therein the taking place of the establishing of successive semiconductor substrate-sections, containing a di-electric bottom-layer thereof, with in the begin-section of the behind this tunnel-arrangement inserted device the

uninterruptedly taking place of removal in downward direction of the successive folio-sections together with a part of the temporary stitch-substance from the successive substate-sections , displacing therethrough, and in the end-section of this device by means of dividing the accomplishing of semiconductor chips with a di-electric bottom-layer thereof.

62. Semiconductor installation according to Claim 59, characterized that way and further containing such means, that as in its tunnel-arrangement the appliance of an uninterrupted metallic semiconductor substrate support/ transfer-band with a roll-arrangement near the entrance - and exit thereof, in the begin-section of this tunnel- arrangement upon this band, containing an already in a foregoing device upon at-least the central section

thereof applied micrometer high film of a temporary stitch-substance, the accomplishing of at-least also a micrometer high di-electric layer as the semiconductor bottom-layer of the successive substrate-sections, pasing therethrough, with such a sufficient height thereof, that in the device behind this tunnel-arrangement by means of dividing thereof the obtaining of semiconductor chips with such a di-electric bottom-layer thereof.

63. Semiconductor installation according to Claim 62, characterized that way and further containing such means, that thereby in successive sections of the tunnel- arrangement upon this di-electric bottom-layer the

uninterruptedly taking place of the establishing of a micrometer high metallic in-between layer, with above again a micrometer high layer of a di-electric substance, on behalf of in this tunnel-arrangement the accomplishing of successive substrate-sections, containing as a total semiconductor bottom-layer such combination of layers

and the also obtaining of semiconductor chips with such a strengthened semiconductor bottom-layer thereof.

64. Semiconductor installation according to one of the foregoing Claims, characterized that way, executed such and containing such means, that thereby in the therein located semiconductor tunnel-arrangement during its operation at at- least the central section of an uninterrupted folio,

uninterruptedly displacing therethrough, the uninterruptedly taking place of the creation of at-least one semiconductor layer, functioning also as a semiconductor top-layer

of the successive semiconductor substrate-sections,

uninterruptedly displacing therethrough, with at-least also the following semiconductor layer-erections of the therefrom obtained semiconductor chips:

a) the combination of a synthetic bottom-layer and a dielectric top-layer; or

b) the combination of a synthetic bottom-layer, a metallic in-between layer and a di-electric top-layer; or

c) the combination of a metallic bottom-layer and a dielectric top-layer; or

d) exclusively a common di-electric bottom- arid top-layer ; or g) the combination of a di-electric bottom-layer, a metallic in-between layer and a di-electric top-layer.

65. Semiconductor installation according to Claim 64, characterized that way, that as therby in such tunnel- arrangement thereof the establishing of successive semicon- ductor substrate-sections, containing a number of above each-other located primary semiconductor layers with

secundary semiconductor in-between layers, in-which the location of a number of metallic in-between connections between these primary layers, wherein the location of a number of metallic connections between these primary layers, in the device, located thereafter, at-least also by means of diversion of these successive semiconductor substrate- sections the establishing of semiconductor chips, containing aside the possible under a) through e) mentioned layers also such semiconductor in-between layers.

66. Semiconductor installation according to one of the foregoing Claims, characterized that way, executed such and containing such means, that as thereby in its semiconductor tunnel-arrangement exclusively the appliance of an uninterrupted metallic semiconductor substrate support/transfer- band, with a roll-arrangement near the entrance and exit thereof and with therein during its operation the accompli- shing of successive semiconductor substrate-sections with at-least also a semiconductor layer upon its central

semiconductor processing-section, functioning also as a semiconductor top-layer of these semiconductor substrate- sections, thereby at-least in addition the following

establishing of semiconductor layers of the in the device behind this tunnel-arrangement by means of separation thereof established semiconductor chips, containing at-least also the following:

a) only a di-electric bottom-layer, also functioning as a di-electric top-layer; or

b) the combination of a di-electric bottom-layer, a metallic in-between layer and a di-electric top-layer.

67. Semiconductor installation according to Claim 66, characterized that way, that as thereby in such tunnel- arrangement the accomplishing of successive semiconductor substrate-sections, containing a number of above each-other located primary semiconductor layers with secundary semiconductor in-between layers, wherein the location of a number of metallic connections between these primary layers, in the thereafter located device at-least also the obtaining of semiconductor chips, containing at-least also aside the possibly b) mentioned semiconductor layers in addition such semiconductor in-between layers.

68. Semiconducto installation according to one of the foregoing Claims, characterized such, further containing such means, that as thereby in said semiconductor tunnel- arrangement thereof the application of an uninterrupted semiconductor substrate supply/transfer-band and the thereupon uninterruptedly taking place of the from a folio storage roll-arrangement thereupon applied successive semiconductor folio-sections, thereby at-least also the in Claims 64 and 65 under a) through e) mentionened possible layer-erections of the obtained semiconductor chips.

69. Semiconductor installation according to one of the foregoing Claims, characterized that way and further executed such, that thereby such semiconductor synthetic folio or established synthetic layer contains a to a sufficient extent high melting-point and a di-electric value thereof on behalf of the at-least also functioning thereof as an at-least temporary semiconductor bottom- layer of the in this semiconductor tunnel-arrangement thereof accomplished semiconductor substrate-sections, with thereby typically not a semiconductor in-between layer or - layers thereof.

70. Semiconductor installation according to Claim 69, containing further such means, that thereby the functioning of the synthetic folio or - layer also as a semiconductor top-layer of these successive semiconductor substrate- sections, displacing therethrough, under thereto also in this tunnel-arrangement in a strip-shaped semiconductor processing-section the taking place of a lightning- process of the successive substrate-sections, displacing underneath, on behalf of the establishing of with a metal filled nanometer-sized recesses in the top-wall thereof.

71. Semiconductor installation according to one of the foregoing Claims, characterized that way, executed such and containing such means, that thereby the appliance of paper in such a thereto suitable execution and composition thereof, that this paper is applicable for such a semiconductor bottom-layer and possibly top-layer of the in the semiconductor tunnel-arrangement thereof accomplished semiconductor substrate-sections, and with the there- after positioned device at least also by means of dividing thereof the obtaining of semiconductor chips with such paper bottom-layer thereof.

72. Semiconductor installation according to one of the foregoing Claims, characterized that way, further executed such and containing such means, that thereby under the appliance of such synthetic - or paper folio, in typically this tunnel-arrangement upon at-least the central semicon- ductor processing-section thereof the taking place of the appliance of a micrometer high layer of a di-electric substance on behalf of the therein accomplishing of with metal filled nanometer wide recesses in the top-wall of the therein established successive semiconductor substrate- sections and thereupon by at-least also a dividing thereof in the device, located behind this tunnel-arrangement, the accomplishing of semiconductor chips with such a semiconductor bottom - and top-layer thereof.

73. Semiconductor installation according to one of the foregoing Claims, characterized that way, that it contains devices on behalf of at-least also the following:

a) starting the supply of semiconductor transfer- and

processing-mediums and the discharge thereof;

b) during a very long period of time the maintaining of a continuous supply - and discharge of these mediums; and c) ending of at-least the continuous supply of these

semiconductor transfer- and processing-mediums.

74. Semiconductor installation according to one of the foregoing Claims, characterized that way, further executed such and containing such means, that thereby therein the possible appliance of multiple semiconductor executions and means of the semiconductor installations, - tunnel- arrangements, - devices and - chips, as shown and described in the by this Applicant applied related Dutch Patent- Applications.

75. Semiconductor installation according to Claim 74, characterized that way and further executed such, that ' therein the possible application of semiconductor devices, contained in the existing semiconductor installations under the use of semiconductor modules, that already are described in Patents, if therein the mentioning in the text and Claims of the following:

a) an individual semiconductor wafer or - substrate: and/or b) a whether or not individual semiconductor processing - module.

76. Mehod of a semicontor installation, containing a semiconductor substrate transfer/processing tunnel- arrangement, characterized such, that thereby during the operation of this tunnel-arrangement the at-least almost continuously taking place of an at-least almost uninterruptedly displacing therethrough of successive, joining

semiconductor substrate-sections on behalf Ρί the therein taking place of also a series of semiconductor processings thereof .

77. Method of the semiconductor installation according to Claim 76, characterized such, that thereby in this semiconductor tunnel-arrangement the taking place of such a great number of semiconductor processings of these successive substrate-sections, that in a behind thereof located device by means of separation thereof the accomplishing of semiconductor chips.

78. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby the width of such tunnel-arrangement thereof is less than 2 meters.

79. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that as thereby such a therein located tunnel-arrangement at-least also contains successive semiconductor processing-sections, therein during its operation the uninterruptedly taking place of successive semiconductor processings of the successive substrate-sections, uninterruptedly displacing therethrough.

80. Method of the semiconductor installation according to Claim 79, characterized such, that thereby in such tunnel- arrangement thereof the at-least almost uninterruptedly displacing therethrough of successive sections of an

uninterrupted folio as an at-least temporary semiconductor underlayer of these successive semiconductor substrate- sections .

81. Method of the semiconductor installation according to Claim 80, characterized such, that this folio consists of at-least one solid substance, enabling its functioning as such an at-least temporary semiconductor underlayer.

82. Method of the semiconductor installation according to Claim 81, characterized such, that this folio thereby at-least consists of a metallic substance.

83. Method of the semiconductor installation according to Claim 81, characterized such, that this folio thereby at-least also consists of a synthetic substance.

84. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby in a device behind the therein located tunnel- arrangement by-means of dividing these successive

semiconductor substrate-sections the establishing of semiconductor chips with such a semiconductor underlayer thereof .

85. Method of the semiconductor installation according to Claim 81, characterized such, that thereby in a device behind the therein located tunnel-arrangement by means of dividing these successive semiconductor substrate- sections the accomplishing of semiconductor chips with at- least a synthetic underlayer and a di-electric top-layer.

86. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby the thickness of such folio is less than 0,2 mm.

87. Method of the semiconductor installation according to Claim 86, characterized such, that thereby the tunnel- passage of such tunnel-arrangement only to a small extent is wider than the breadth of such folio.

88. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby the application of a folio with at-least almost parallel upward sidewalls thereof.

89. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that as thereby therein the location of a device on behalf of the availability of such a very long folio, during a very long period of time an uninterrupted lineair displacement of the successive sections thereof is taking place through such semiconductor tunnel-arrangement.

90. Method of the semiconductor installation according to Claim 89, characterized such, that as thereby the use of a folio storage-roll, an uninterrupted supply of succes- sive folio-sections is taking place.

91. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby the duration of time of such an uninterrupted displacement of these successive folio-sections through almost all semiconductor processing-sections of such tunnel-arrangement amounts at-least 2 months.

92. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby the velocity of displacement of the successive substrate-sections through such tunnel-arrangement is less than 3 mm per second.

93. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that as thereby such semiconductor tunnel-arrangenent , containing at-least also an upper- and lowertunnelblock , uninterruptedly extending in the lineair displacement-direction of these successive semiconductor substrate-sections, displacing therethrough, enables such displacement.

94. Method of the semiconductor installation according to Claim 93, characterized such, that thereby the passageway of such semiconductor tunnel-arrangement for the successive semiconductor substrate-sections, displacing therethrough during its operation, only at the entrance- and exit-side thereof is in an open connection with the atmospheric outer air under the appliance of a gaseous medium-lock at at-least the entrance-side thereof.

95. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that as thereby behind the exit of the therein located tunnel- arrangement the insertion of a device, therein at-least by means of dividing the successive, therein uninterruptedly displacing semiconductor processed semiconductor substrate-sections, the accomplishing of semiconductor chips .

96. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby therein the taking place of government of at-least also the successive semiconductor processings in such a tunnel-arrangement and the therein located semiconductor substrate transfer-system on behalf of an at-least almost uninterrupted uniform displacement of the successive semiconductor substrate-sections therethrough.

97. Method of the semiconductor installation according to Claim 96, characterized such, that thereby for that purpose in at-least the end-section of such tunnel- arrangeent the continuously exercising of a tractive-power upon the successive semiconductor substrate-sections, displacing therethrough.

98. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that in the exit-section of such therein located tunnel-arrangement at-least the also taking place of removal therefrom of the successive folio-sections as a temporary semiconductor underlayer of the therein accomplished semiconductor substrate-sections.

99. Method of the semiconductor installation according to Claim 98, characterized such, that thereby in the entrance-section of this tunnel-arrangement the taking place of the application of a micrometer-high film of a fluidic stitch-substance, with a high boiling-temperature thereof on behalf of the temporary in this tunnel- arrangement taking place of a temporary anchorage upon this folio of the successive, therein accomplished

semiconductor substrate-sections.

100. Method of the semiconductor installation as in one of the foregoing Claims, characterized such, that as for that purpose in the exit-section of this tunnel- arrangement the location of a discharge-roll, the displacement in an downward direction of the from the in a lineair direction displacing semiconductor substrate- sections successively removed folio-sections takes place.

101. Metod of the semiconductor installation according to Claim 100, characterized such, that thereby in a device behind this roll-arrangement by means of dividing of the removed semiconductor substrate-sections the accomplishing of semiconductor chips with typically a di-electric underlayer thereof.

102. Method of the semiconductor installation according to Claim 100, characterized such, that as it also contains a storage-roll for these successively removed folio- sections, with in-between this dischargeroll-arrangement and this storage-roll the location of a cleaning-divice , therein a cleaning of these successive folio-sections, displacing therethrough, is taking place.

103. Method of the semiconductor installation according to Claim 100, characterized such, that as thereby therein the location of a roll-arrangement at the entrance-side of such tunnel-arrangement, thereby the taking place of the successive, uninterruptedly through this tunnel- arrangement displacing folio-sections as a part of an uninterrupted semiconductor substrate support-transfer- band .

104. Method of the semiconductor installation according to Claim 103, characterized such, that as thereby underneath this tunnel-arrangement in-between these two roll- arrangements at-least also the insertion of a cleaning- device, thereby the taking place of cleaning these successive semiconductor band-sections, uninterruptedly displacing therethrough.

105. Method of the semiconductor installation according to Claim 104, characterized such, that thereby during the operation of this tunnel-arrangement this metallic

semiconductor substrate support/transfer-band functions to therewith displace successive semiconductor substrate- sections through this tunnel-arrangement as a temporary semiconductor underlayer of these successive semiconductor substrate-sections.

106. Method of the semiconductor installation according to Claim 105, characterized such, that as thereby the central semiconductor processing -section of this band has been deepened, therein during the operation thereof at-least the taking place of erection of successive semiconductor substrate-sections.

107. Method of the semiconductor installation according to Claims 105 and 106, characterized such, that as thereby underneath this tunnel-arrangement between these two roll- arrangements behind the therein located cleaning-device on behalf of the cleaning of the successive, uninterruptedly displacing semiconductor band-sections therethrough, the location of a device to at-least in the central semiconductor processing-section thereof the establishing of a micrometer high film of a fluidic high-boiling stitch- substance on behalf of the during the displacing of the successive sections of the substrate support /transfer-band through this tunnel-arrangement thereby to a sufficient extent such an at-least temporary anchorage thereupon of the therein established successive semiconductor substrate- sections, that in a device behind this tunnel-arrangement the possible taking place of separation of these successive semiconductor substrate-sections from the successive band- sections .

108. Method of the semiconductor installation according to Claim 107, characterized such, that thereby in this tunnel-arrangement in its begin-section upon this layer of such a temporary stitch-substance the taking place of establishing a semiconductor underlayer for these successive semiconductor substrate-sections.

109. Method of the semiconductor installation according Claim 108, characterized such, that thereby for this semiconductor underlayer the possible appliance of any thereto suitable semiconductor substance.

110. Method of the semiconductor installation according to Claim 109, characterized such, that thereby for these substances of the semiconductor underlayer the appliance has taking place of the combination of a number of upon each other located together-stitched semiconductor layers,, consisting of at-least also additional semiconductor substances .

111. Method of the semiconductor installation according to Claim 110, characterized such, that thereby for this underlayer in this tunnel-arrangec33t t a sstablishing of a micrometer high di-electric substance.

112. Method of the semiconductor installation according to Claim 110, characterized such, that thereby for this underlayer in this semiconductor tunnel-arrangement the establishing of a micrometer high metallic substance.

113. Method of the semiconductor installation- according to one of the foregoing Claims, characterized such, that as thereby near the entrance of the therein located

tunnel-arrangement the location of a storage-roll for the temporary storage of a very long folio, during the opera- tion of this tunnel-arrangement the uninterruptedly taking place of at the entrance-side thereof applying of

successive folio-sections as an at-least temporary

semiconductor underlayer of these successive, therethrough displacing semiconductor substrate-sections upon the cen- tral semiconductor processing-section of the successive, already uninterrupted semiconductor substrate support/ transfer-bandsections.

114. Method of the semiconductor installation according to Claim 113, characterized such, that thereby the material for this folio consists of at-least a synthetic substance.

115. Method of the semiconductor installation according to Claim 113, characterized such, that thereby the material for this folio at-least also consists of a soft metallic substance .

116. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that this folio thereby consists of a number of different semiconductor substances.

117. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby in the entrance-section of this tunnel-arrangement the uninterruptedly taking place of the establishing of a number of upon each other located micrometer-high di- electrical substances upon the successive semiconductor folio-sections, uninterruptedly displacing therethrough.

118. Method of the semiconductor installation according to Claim 117, characterized such, that thereby in there- upon following strip-shaped upper semiconductor processing split-sections at the central semiconductor processing- section of this tunnel-arrangement the thereupon taking place of all following establishings of semiconductor layers and primary semiconductor processings to accomplish such successive semiconductor substrate-sections, that out of that in a device behind the exit thereof by means of dividing of these substrate-sections the establishing of semiconductor chips.

119. Method of the semiconductor installation according to Claim 118, characterized such, that thereby under the application of such an uninterrupted semiconductor

substrate support /transfer-band the thereupon accomplished bottom-layer not to such extent is stitched thereupon, that thereby after all these having taken place successive semiconductor establishings and - processings in this device the taking place of separation of the semiconductor top-layer, including this semiconductor bottom-layer, as successive semiconductor substrate-sections have been removed from this band, after-which by means of dividing this semiconductor top-layer the accomplishing of semiconductor chips with this di-electric bottomlayer.

120. Method of the semiconductor installation according to Claim 113, characterized such, that as thereby the vertical sidewalls of such deepened flat upperwall-section of this band, as seen in both the length- as height- direction, also at-least almost are flat and these sidewalls are also almost parallel with both upward sidewalls of this band, the accomplishing of an optimal filling thereof with such successive folio-sections.

121. Method of the semiconductor installation according to Claim 120, characterized such, that as thereby during the operation of this tunnel-arrangement the uninterruptedly displacing therethrough of the successive band-sections, with thereupon successive sections of an uninterrupted folio, the thereby maintaining of an at-least almost parallel position of the upward sidewalls of the folio- sections with the therewith corresponding upward side- walls of the tunnel-passage.

122. Method of the semiconductor installation according to Clsim 121, characterized such, that thereby by means of successive flows of gaseous medium along at-least also this folio, the uninterruptedly maintaining of the

following:

a) conducting of this band along an upward sidewall of the tunnel-passage; and

b) reclining of the successive folio-sections with one

upward sidewall thereof against the therewith corres- ponding upward sidewall of this deepened upperwall- section of this band.

123. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby in the tunnel-arrangement, contained therein, during the in a strip-shaped upper processing-section thereof uninterruptedly taking place of a heating-process of the semiconductor toplayer-section of the successive, uninterruptedly underneath thereof displacing substrate- sections, the preventage of an unallowable deformation thereof in at-least its transverse direction.

124. Method of the semiconductor installation according to Claim 123, characterized such, that as thereby in such heating-processingsection in the lower wall of the upper- tunnelblock the location of an electric strip-shaped heating-element, with a micrometer breadth thereof, therewith during a very short period of time the heating of only mainly a micrometer high layer of an established semiconductor substance, as for instance a di-electric layer, is taking place.

125. Method of the semiconductor installation according to Claim 124, characterized such, that as thereby in the length-direction beyond thereof in this block the location of an also strip-shaped cooling-section, thereby a cooling-off takes place of this layer.

126. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby in such tunnel-arrangement thereof the uninterrup- tedly taking place of the establishing of at-least one semiconductor top-layer upon the semiconductor band- sections, during its operation uninterruptedly displacing therethrough, and whereby at-least also the following:

a) an allowable deformation thereof during such semicon- ductor processing-process; and

b) a small acceptable expansion of these successive

semiconductor substrate-sections in the length-direction of the tunnel-passage during their lineair displacement therethrough .

127. Method of the semiconduc or installation according to Claim 126, characterized such, that thereby this band a very thin semiconductor folio is, displacing therethrough.

128. Method of the semiconductor installation according to Claim 126, characterized such, that thereby this band such an uninterrupdmetallic semiconductor substrate suppor /transfer^band is.

129. Method of the semiconductor installation according to Claim 126, characterized such, that as thereby for such successive semiconductor toplayer-sections . by means.of typically only one strip-shaped lightning-device the establishing of a lightning-pattern, thereby the application of only one common semiconductor top-layer.

130. Method of the semiconductor installation according to Claim 126, characterized such, that thereby in such semiconductor tunnel-arrangement thereof the accomplishing of a number of upon each other positioned semiconductor main layers, with in-between a di-electric layer, containing some metallic inner-connections therefor.

131. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby by means of a strip-shaped supply-device for a strip-shaped lightning-pattern, located in at-least the uppertunnelblock of this tunnel-arrangement, the taking place of the applying of a strip-shaped lightning-pattern upon the successive, underneath thereof displacing

semiconductor substrate-sections.

132. Method of the semiconductor installation according to Claim 131, characterized such, that thereby in both transverse ends of such semiconductor band or - folio the establishing of successive recesses on behalf of by means of this band or folio the also displacing therewith of this applying-device of such lightning-pattern during the lightning-process.

133. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby after the joining of another semiconductor folio with the back-side of the already through the tunnel- arrangement displacing folio, thereafter upon at-least one place a stitch-connection in-between thereof has been accomplished and on-which the use of any type of already commonly used stitch-method, as for instance the establishing of a weld-connection or melting-together of both folio-ends.

134. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that in the therein located tunnel-arrangement during its operation the taking place of all required semiconductor appliances of - substances and - processings of the successive semiconductor substrate-sections, uninterruptedly displacing thereth ough, and after the displacement thereof out of this tunnel-arrangement through its exit- side, in a thereafter located device-combination at-first the taking place of removal of this layer fluidic guidance- medium therefrom and thereupon therein the taking place of dividing of these successive semiconductor substrate- sections under the accomplishing of semiconductor chips.

135. Method of the semiconductor installation according to Claim 134, characterized such, that as thereby in this tunnel-arrangement during its operation the therein taking place of an uninterruptedly displacing therethrough of a folio from a folio storage-roll, thereby the successive folio-sections; functioning as a definite semiconductor bottom-layer of the therein established semiconductor substrate-sections and whereby in a device behind this tunnel-exit by means of at-least also a dividing thereof the accomplishing of semiconductor chips with a folio- part as their semiconductor bottom-layer.

136. Method of the semiconductor installation according to Claim 134, characterized such, that as thereby in this tunnel-arrangement during its operation the therein taking place of an uninterrupted displacement of an uninterrupted semiconductor folio, derived from a folio storage-roll, with thereupon at at-least the central semiconductor processing-section . thereof in the begin-section of the tunnel-passage the application thereupon of a micrometer high layer of a fluidic temporary stitch-medium and thereupon therein the taking place of the establishing of successive semiconductor substrate-sections, containing a di-electric bottom-layer thereof, with in the begin-section of the behind this tunnel-arrangement inserted device the uninterruptedly taking place of removal in downward direction of the successive folio-sections together with a part of the temporary stitch-substance from the successive substrate-sections, displacing therethrough, and in the end-section of this device by means of dividing the accom- plishing of semiconductor chips with a di-electric bottom- layer thereof.

137. Method of the semiconductor installation according to Claim 134, characterized such, that as in its tunnel- arrangement the appliance of an uninterrupted metallic semiconductor substrate support/transfer-band with a roll- arrangement near the entrance - and exit thereof, in the begin-section of this tunnel-arrangement upon this band, containing an already in a foregoing device upon at-least the central section thereof applied micrometer high film of a temporary stitch-substance, the accomplishing of at- least also a micrometer high di-electric layer as the semiconductor bottom-layer of the successive substrate- sections, pasing therethrough, with such a sufficient height thereof, that in the device behind this tunnel- arrangement by means of dividing thereof the obtaining of semiconductor chips with such a di-electric bottomlayer thereof .

138. Method of the semiconductor installation according to Claim 137, characterized such, that thereby in successive sections of the tunnel-arrangement upon this dielectric bottomlayer the uninterruptedly taking place of the establishing of a micrometer-high metallic in-between layer, with above again a micrometer high layer of a dielectric substance, on behalf of in this tunnel-arrangement the accomplishing of successive substrate-sections, containing as a total semiconductor bottom-layer such combination of layers and the also obtaining of semicon- ductor chips with a strengthened semiconductor bottom- layer thereof.

139. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby in the therein located tunnel-arrangement during its operation at at-least the central section of an

uninterrupted folio, uninterruptedly displacing

therethrough, the uninterruptedly taking place of the creation of at-least one semiconductor layer, functioning also as a semiconductor top-layer of the successive semi- conductor substrate-sections, uninterruptedly displacing therethrough, with at-least also the following semiconductor layer-erections of the therefrom obtained semiconductor chips:

a) the combination of a synthetic bottomlayer and a di- electric toplayer; or

b) the combination of a synthetic bottomlayer, a metallic in-between layer and a di-electric toplayer; or

c) the combination of a metallic bottomlayer and a dielectric toplayer; or

d) exclusively a common di-electric bottom- and toplayer; or

e) the combination of a di-electric bottomlayer, a metallic in-between layer and a di-electric toplayer.

140. Method of the semiconductor installation according to Claim 139, characterized such, that as thereby in such tunnel-arrangement the establishing of successive semiconductor substrate-sections, containing a number of above each-other located primary semiconductor layers with

secundary semiconductor in-between layers, in-which the location of a number of metallic in-between connections between these primary layers, wherein the location of a number of metallic connections between these primary layers, in the device, located thereafter, at-least also by means of diversion of these successive semiconductor substrate- sections the establishing of semiconductor chips, containing aside the possible under a) through e) mentioned layers also such semiconductor in-between layers.

141. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, and containing such means, that as thereby in its semiconductor tunnel-arrangement exclusively the appliance of an uninterrupted metallic semiconductor substrate support/transfer- band, with a roll-arrangement near the entrance and exit thereof and with therein during its operation the accomplishing of successive semiconductor substrate-sections with at-least also a semiconductor layer upon its central semiconductor processing-section, functioning also as a semiconductor top-layer of these semiconductor substrate- sections, thereby at-least in addition the following establishing of semiconductor layers of the in the device behind this tunnel-arrangement by means of separation thereof established semiconductor chips, containing at- least also the following:

a) only a di-electric bottom-layer, also functioning as a di-electric top-layer; or

b) the combination of a di-electric bottom-layer, a metallic in-between layer and a di-electric top-layer.

142. Method of the semiconductor installation according to Claim 141, characterized such, that as thereby in such tunnel-arrangement the accomplishing of successive semiconductor substrate-sections, containing a number of above each-other located primary semiconductor layers with secundary semiconductor in-between layers, wherein the location of a number of metallic connections between these primary layers, in the thereafter located device at-least also the obtaining of semiconductor chips, containing at- least also aside the possibly under b) mentioned semiconductor layers in addition such semiconductor in-between layers.

143. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that as thereby in said tunnel-arrangement thereof the application of an uninterrupted semiconductor substrate supply/ transfer-band and the thereupon uninterruptedly taking place of the from a folio storage roll-arrangement there- upon applied successive semiconductor folio-sections, thereby at-least also the in Claims 139 and 140 under a) through e) mentioned possible layer-erections of the obtained semiconductor chips.

144. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that as thereby such semiconductor synthetic folio or established synthetic layer contains a to a sufficient extent high melting-point and a - di-electric value thereof, the at-least also functioning thereof as an at-least temporary semiconductor bottom-layer of the in this tunnel-arrangement thereof accomplished semiconductor substrate-sections, with thereby typically not a semiconductor in-between layer or - layers thereof.

145. Method of the semiconductor installation according to Claim 144, containing further such means, that thereby the functioning of the synthetic folio or - layer also as a semiconductor top-layer of these successive semiconductor substrate-sections, displacing therethrough, under thereto also in this tunnel-arrangement in a strip-shaped semicon- ductor processing-section the taking place of a lightning- process of the successive substrate-sections, displacing underneath, on behalf of the establishing of with a metal filled nanometer-sized recesses in yhe top-wall thereof.

146. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby the appliance of paper in such a thereto suitable execution and composition thereof, that this paper is applicable for such a semiconductor bottomlayer and

possibly top-layer of the in the tunnel-arrangement thereof accomplished semiconductor substrate-sections, and with such thereafter positioned device at-least also by means of dividing thereof the obtaining of semiconductor chips with such paper bottomlayer thereof.

147. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby under the appliance of such synthetic - or paper folio, in typically this tunnel-arrangement upon at-least the central semiconductor processing-section thereof the taking place of the appliance of a micrometer high layer of a di-electric substance on behalf of the therein

accomplishing of with a metallic substance filled nanometer wide recesses in the top-wall of the therein established successive semiconductor substrate-sections and thereupon by at-least also a dividing thereof in the device, located behind this tunnel-arrangement, the accomplishing of semiconductor chips with such a semiconductor bottom- and toplayer thereof.

148. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that it contains devices on behalf of at-least also the following: a) starting the supply of semiconductor transfer- and

processing-mediums and the discharge thereof;

b) during a very long period of time the maintaining of a continuous supply - and discharge of these mediums; and c) ending of at-least the continuous supply of these

semiconductor transfer- and processing-mediums.

149. Method of the semiconductor installation according to one of the foregoing Claims, characterized such, that thereby therein the possible appliance of multiple semiconductor executions and means of the semiconductor installations, - tunnel-arrangements, - devices and - chips, as shown and described in the vy this Applicant applied related Dutch Patent-Applications.

150. Method of the semiconductor installation according to Claim 149, characterize such, that as therein the possible application of semiconductor devices, contained in the existing semiconductor installations under the use of semiconductor modules, that already are described in Patents, if therein the mentioning in the text and Claims of the following:

a) an individual semiconductor wafer or -substrate; and/or b) a whether or not individual semiconductor processing- module ,

the in an adapted form or configuration thereof making use thereof in this installation.

Description:
Semiconductor installation, containing at-least also a long narrow semiconductor substrate transfer /processing tunnel-arrangement to during its operation the uninterruptedly taking place of a total semiconductor processing/ treatment^ pocess of the therein displacing semiconducttor substrates .

In the semiconductor installation according to the invention typically the tremendous yearly production of approx. 0,4 milliard semiconductor chips takes place.

Until now such a semiconductor installation is not known. Thereby in addition to the above in the accompanying Dutch Patent Application no. 1 of the Applicant the

described main advantages of such a semiconductor

installation in comparance with the existing semiconductor installations under the application of at-least individual semiconductor modules and - wafers.

The typically less than 15 meter long semiconductor installation therewith has thereby only a width of typically less than 2 meters on behalf of the therein during its operation the accomplishing of semiconductor chips out of successive established semiconductor substrate-sections.

Thereby in such installation the location of also a semiconductor substrate transfer /processing tunnel- arrangement, as additionally is described in this application and wherein during its operation in successive

semiconductor processing/treatment-sections the uninterruptedly taking place of successive semiconductor

processings/treatments of the successive, ubinterruptedly displacing semiconductor substrate-sections therethrough and such typically under, the appliance of an uninterrupted folio or band as an at-least temporary semiconductor

underlayer thereof.

In a following favourable execution of this installation therein the location of a device on behalf of the storage therein of such a very long folio, that during a very long period of time, typically approx. 0,2 years, the at-least almost continuously lineair displacement thereof is taking place through such semiconductor tunnel-arrangement.

Furthermore contains such folio parallel upward

extending sidewalls and has a width, that to a small extent is smaller than that of the passage-way of such tunnel-arrangement.

In a following execution of such tunnel-arrangement it only extends in the lineair direction thereof.

Thereby the passage-way thereof on behalf of at-least the displacement therethrough of the successive semicon- ductor substrate-sections during their its operation only at the entrance- and exit-side thereof is in an open connection with the atmospheric outer air under the

appliance of a gaseous medium-lock, located at least at the entrance-side thereof.

Furthermore, in a favourable execution of this installation behind such tunnel-arrangement the insertion of a device on behalf of therein at-least also by means of separation of the successive, therein uninterruptedly semo-

-conductor processed semiconductor substrate-sections, the establishing of semiconductor chips.

Furthermore, this installation contains means ¾o

govern at-least also the successive semiconductor

treatments/processings in such tunnel-arrangement and the semiconductor substrate transfer-system on behalf of an at-least almost uninterruptedly uniform displacement of the successive semiconductor substrate-sections there' through .

For the installation required personal on behalf of the taking place of at-least the following:

a) the start of the operation of such semiconductor tunnel- arrangement and its ending; and

b) a supervision of the correct continuous operation of this tunnel-arrangement and its maintenance.

Furthermore, this installation contains storage-devices of J;he different semiconductor treatment/processing- and transfermedium s .

In a favourable execution of this installation thereby the. location of a roll-arrangement at the entrance-side of the tunnel-arrangement on behalf of the again supply of the cleaned folio therein.

Thereby for that purpose behind such an beneath this tunnel-arrangement located cleaning-device for this

metalic folio the location of a device on behalf of the therein upon its upperwall the establishing of a micrometer high layer of fluidic guidance-medium on behalf of an easy displacement thereof through this tummel- arrangement.

Furthermore, in a favourable execution of this instal- lation the functioning of such folio as an uninterrupted metallic semiconductor substrate support/transfer-band on behalf of the near the entrance of the therein located tunnel-arrangement thereupon bring-up of successive folio- sections, with thereby typically the maintaining of a mechanic contact between these successive band- and folio- sections .

With the existing semiconductor installations under the appliance of storaging of semiconductor wafers in boxes and their transfer toward and from successive semiconductor processing-modules on behalf of the production of

semiconductor chips, with multiple disadvantages thereof.

Thereby for instance with the appliance of the combination of an almost cylindrical wafer as a semiconductor substrate and multiple semiconductor processing-modules, wherein not a possible lineair displacement thereof therethrough, the establishing of only one wafer as a semiconductor substrate, with its division to obtain semiconductor chips .

In accordance with the above, the required establishing of a number of successive, only in the upward direction above each other located semiconductor layers, with in- between typically di-electric semiconductor layers, containing metallic semiconductor in-between connections for these semiconductor layers.

Thereby no possibility of making use of such semiconductor layers, successively aside each other in a lineair direction . Consequently, the requirement of an extremely expensive and complex semiconductor installation, containing such extremely large number of semiconductor processing/

treatment modules.

Thereby with the application of for instance five upon each other located semiconductor layers, with for each layer a typically almost circular form, the requirement of

individual lightning-patterns, requiring a large number of succceeding lightning procedures.

Furthermore, individual semiconductor processing/treatment treatment devices, also containing a considerable dimension.

Such also for the thereby in-between four semiconductor connection-layers, with too at-least also the required appliance of a great number of such semiconductor divices.

Consequently, also through the above the requirement of a large number of required semiconductor cleaning-treatments on behalf of the establishing of a total semiconductor processing/treatment-process for such semiconductor wafer, with typically a thereby required di-electric underlayer thereof to obtain such semiconductor chips.

Thereby also due to the continuously further reduction of he width of the metallic semiconductor connections within such semiconductor layer, now already less than 40 nanometer, a constantly further increasing difficulty of the total semiconductor processing/treatment-process and such also due to the extremely accurate position above each other of these successive semiconductor layers, with the in-between metallic connections.

In this new semiconductor installation now however, due to the nanometer sized line-widths, the possible ideal accomplishing of successive semiconductor substrate- sections, containing only one semiconductor layer and from- which in a device behind such semiconductor tunnel- arrangement by means of a dividing thereof the establishing of semiconductor chips with only this single semiconductor layer and still thereby an allowable size thereof.

In this semiconductor installation according to the invention the possible appliance of multiple semiconductor- means and methods of the semiconductor devices, as

described and disclosed in the at the same time applied Dutch Patent Applications of the applicant.

Furthermore, in this semiconductor installation the possible appliance of all, already commonly used

semiconductor processings/treatments of wafers in

semiconductor modules, also the ones, that are already described in Patents, if therein in the text and Claims the mentioning of the following:

a) an individual semiconductor wafer or - substrate; and/or b) a whether or not individual semiconductor processing/ treatment-module .

Furthermore, the in this Patent Application described means and methods are also applicable in the semiconductor installations or sections thereof, described and disclosed in at-least these Dutch Patent-Applications, at the same time applied by the Applicant.

Figure 1 shows schmatically the semiconductor

installation according to the invention in a side-view thereof.

Figure 2 shows a cross-section in the transverse - direction over the line 2-2 of the in this installation located semiconductor tunnel-arrangement at the entrance- section thereof.

Figure 3 shows a cross-section in the length-direction of this tunnel at its central semiconductor processing/ treatment-section thereof*.

Figure 3^ shows thereby strongly enlarged a section of the central tunnel-passage at the strip-shaped transducer- arrangement, located in the uppertunnelblock .

Figure 3^ shows thereby strongly enlarged the

tunnel-passage behind this transducer-arrangement.

Figure 4 shows strongly enlarged in a cross-sectional view in the length-direction of the tunnel-passage the combination of successive supply- and discharge-grooves for fluidic transfer /guidance-medium , located in the lowertunnelblock.

Figure 5 shows schematically the semiconductor installation in an alternative execution thereof and

whereby therein in a device behind the exit of the tunnel- arrangement by means of a roll-arrangement the taking

place of separation of the successive semiconductor

substrate-sections from the successive folio-sections

under thereby the storage of these successive folio-sections in a folio-storage roll-arrangement.

Figure 6 discloses an alternative execution of the

installation according to Figure 5 and whereby therein at the entrance of this semiconductor tunnel-arrangement the

location of a roll-arrangement on behalf of the also

therewith accomplishing of an uninterrupted metallic

semiconductor support/transfer-band and whereby upon this band the deposition of successive, typically synthetic folio-sections, derived from an in this installation

located folio storage-roll.

Figure 7 shows a transverse cross-section of a band- execution, with a recessed central section of the upper- wall thereof on behalf of the location therein of the

successive folio-sections.

Figure 8 discloses a section of an alternative

execution of the semiconductor installation, with therein the uninterruptedly displacement of an uninterrupted

folio support/transfer-band, with thereupon two joined folios.

Figure 9 shows a partial top-view of the successive, by means of the device behind the tunnel-arrangement

uninterruptedly displacing semiconductor substrate- sections .

Figure 10 shows very enlarged a top-view of the after dividing of these successive semiconductor substrate- sections accomplished semiconductor chip, containing

thereby typically only one semiconductor top-layer.

The invention shall underneath further be explained and, such based on a number, in the Figures shown

execution-examples of the installation-structure.

Figure 1 shows schematically the semiconducto r

installation in a side-view thereof. Such semiconductor installation thereby consists

typically mainly of the semiconductor substrate-transfer processing/treatment-tunnelarrangement 12, extending in the length-direction thereof, and consisting of the

upper tunnelblock 14, the lower tunnelblock 16 and the in- between located central tunnel-passage 18, Figures 2 and 3.

In such semiconductor installation near the entrance- side 20 of the semiconductor tunnel-arrangement 12 the location of a storager oil-arrangement 22 on behalf of during its operation the uninterrupted supply of a very long folio with typically only a less than 0,1 mm

thickness thereof and containing the typically at-least almost parallel upward side-walls 26 and 28.

During the operation of such semiconductor installation thereby an uninterrupted lineair displacement of this folio 24 is taking place through this tunnel-passage 18.

Thereby in the successive sections of the central upper semiconductor processing/treatment-section of the tunnel-passage 18 the uninterruptedly taking place of the erection of at-least one semiconductor layer upon the top-side of this folio under the accomplishing of successive semiconductor substrate-sections, uninterruptedly displacing underneath this upper processing/treatment - section .

In the following text and Claims instead of the term

"processing/treatment" only the word "processing" will be used, as is also used in this Dutch Patent-Application.

Figure 3 shows a cross-section in the length-direction of the begin-section of this semiconductor tunnel 12 at its central semiconductor processing-section.

On behalf of the anchorage of the first semiconductor layer upon this folio 24 near the entrance 20 of this tunnel-passage 18 behind the strip-shaped lock-section 30 and such through the strip-shaped supply-section 32 in the uppertunnelblock 14 at the upper split-section of the tunnel-passage 18 the uninterruptedly taking place of the supply of the combination of low-boiling fluidic support- medium 36 and parts of the fluidic stitch-medium 38. Thereby by means of the in the lower part of this tunnelblock located strip-shaped vibrating transducer- arrangement 40, also functions as a heating-source, in the upper processing-section underneath thereof the

continue evaporation takes place of the low-boiling

fluidic support-medium 36, with thereby the deposition of these parts of the fluidic stitch-medium 38 upon the successive, underneath thereof displacing folio-sections under the establishing of an uniform micrometer high layer of this fluidic stitch-substance 38 and whereby in a following strip-shaped discharge-section 42 in this

uppertunnelblock 14 the taking place of a discharge of this evaporated medium.

Figure 3^ shows thereby strongly enlarged a section of this uppersplit 34 underneath this transducer-arrangement 40, with therein already the establishing of deposition of parts of the fluidic stitch-substance 38 upon the succesr sive, underneath thereof displacing folio-sections 24 and Figure 3^ a section of this uppersplit 34 behind this discharge-section 42 and whereby at this place such a created micrometer high layer of this stitchmedium 38 upon these successive folio-sections 34, displacing underneath thereof .

Thereby, as is shown in Figure 3 and strogly enlarged in Figure 4, at least locally in at-least the upperwall of this undertunnelblock 16, as seen in the direction of displacement of the successive uninterruptedly displacing semiconductor substrate-sections 44, in the length- direction of this tunnel the location of successive grooves 46, extending in the length-direction of this tunnel, with at their entrance-side the connection thereupon of the strip-shaped supply-sections 48 for typically high-boiling fluidic transfer/guidance-medium 50, and at exit-side thereof the connection thereupon of the strip-shaped discharge-sections 54 on behalf of the continuously

maintaining of successive flows thereof along the lower wall of these successive folio-sections under thereby the at the same time maintaining of a micrometer high film thereof in at-least the in-between located undersplit- sections 58 and supporting therewith the displacement of these successive semiconductor substrate-sections through the tunnel-passage 18.

Thereby, as further is shown in Figure 4, in the

successive sections of the central upper semiconductor processing-section 60 of the tunnel-passage 18 the uninterruptedly erection of the successive semiconductor layers upon the top-side of this folio 24 under the establishing of these successive semiconductor substrate-sections 44, uninterruptedly displacing underneath this central upper semiconductor processing-splitsection 34.

In Figure 5 a schematic sideview of the alternative semiconductor installation 10' is shown, whereby therein during its operation in the device 62 the uninterruptedly taking place of separation of the succeeding parts of the metallic folio 24 from the thereupon in the semiconductor tunnel-arrangement 12' created successive semiconductor substrate-sections 72.

These successive folio-sections are derived from the folio-storageroll 22'.

On behalf of the establishing of such separation, thereby precedingly in the begin-section of the tunnel- arrangement 12' upon these successive folio-parts the application of a micrometer high film of a very high- boiling fluidic medium, typically gallium, upon at-least the central semiconductor processing-section thereof.

Thereby by means of the roll-arrangement 64 the

displacing of these successive folio-sections toward the cleaning-device 66 on behalf of the therein uninterruptedly taking place of cleaning of in particular its top-surface.

Subsequently, thereby in the roll-arrangement 68 the storage of these successive folio-sections takes place.

Thereby this roll-arrangement 68 also functions on behalf of the thereby exercision of a tractive power upon these successive folio-sections.

In the adjusted device 70 thereby after the cleaning of the successive, therein uninterruptedly supplied

semiconductor substrate-sections 44, the taking place of dividing these sections into semiconductor chips 72.

The in at-least the Figures 1, 2 and 3 shown folio 24 typically consists of a synthetic - or metallic substance.

Thereby consequently its functioning as a semiconductor underlayer of the in the tunnel-arrangement 12 of this semiconductor installation 10 accomplished successive semiconductor substrate-sections 44 and with that also of such a semiconductor chip 71.

Figure 6 shows the semiconductor installation 10", whereby at the entrance of the tunnel-arrangement 12" the roll-arrangement 78 on behalf of the again import of the in section 66" cleaned successive sections of the folio 24" into this semiconductor tunnel-arrangement 12", with typically its functioning as an uninterrupted semiconductor support/transfer-band.

In the device 30 beyond this cleaning-device 66" for that purpose the taking place of the establishing of a temporary micrometer high film of the fluidic stitch- substance 82 upon the successive, uninterruptedly

displacing, also for that purpose to a small extent thicker metallic band 76.

Thereby in a favourable operation of this installation 10" an uninterrupted supply of successive folio-sections 74 from the folio-storageroll 22" is taking place on behalf of the near the entrance-section 20" of this tunnel- arrangement 12" applying thereof upon this band 76, with thereby this in-between micrometer high layer of the temporary fluidic stitch-substance 82.

Furthermore, by means of this stitch-substance 82 in this tunnel-arrangement 12" the taking place of such a to a sufficient degree anchoraging upon the successive band- sections 76 of the therein accomplished successive

semiconductor substrate-sections 44", that in the

device 62" behind this tunnel-arrangement the possible taking place of separation of these successive semiconductor substrate-sections from the successive band-sections. Figure 7 shows a favourable execution of this semiconductor substrate support/transfer-band 76, whereby its upperwall at least at the central semiconductor processing- section to a small extent is deepened on behalf of the therein establishing of successive semiconductor substrate- sections 44''', with typically the successive folio- sections 74''' as a definitive semiconductor under-layer thereof .

Thereby the upon the deepened central section 84 of this band 76 applied successive folio-sections 74 as a definitive semiconductor underlayer of such successive semiconductor substrate-sections are in a to a sufficient degree

anchoraged thereupon by means of a mechanic contact of these thereto optimal flat successive folio-sections with the also optimal flat deepened upperwall-sections of this band.

Such also due to thereby the application of a semiconductor substrate support/transfer-band 76 with at-least one upward sidewall 86 thereof, that corresponds with a flat upward sidewall 88 of the tunnel-passage l e ' ' ' .

Furthermore, that thereby also for that purpose the upward sidewall 90 of this deepened section 84 of this band 76 corresponds with the upward sidewall 86 of this band, also to a sufficient extent is flat in its length- and upward direction and such also for the therewith corresponding upward sidewall of the successive folio- sections 4 ' ' ' .

Furthermore, that thereby during a heating-process of the top-layer of the successive semiconductor substrate- sections 44, as also is described in the other Patent- Applications of the Applicant, the also preventing of an unallowable transformation in transverse direction

thereof .

Thereby for that purpose in successive heating-sections . in the lower wall of the upper tunnelblock 14 the insertion of a micrometer-sized electrical heating-element, with thereby during a very short period of time a heating of only a (siib) micrometer high layer of an applied semiconductor substance, such as a di-electric substance and typically in the length-direction aside thereof a following cooling-off device.

Furthermore, also for that purpose in a favourable method in this tunnel-arrangement 12 the establishing of only one semiconductor top-layer above typically for

instance a synthetic folio 24, resulting at-least also in the following:

a) a small allowable transformation thereof during such heating-process; and

b) a small allowable enlargement thereof in the length- direction of the tunnel-passage 18 during the lineair displacement thereof therethrough, because thereby in a strip-shaped tunnel-section typically only one single lightning-process is required.

Thereby during the operation of this tunnel-arrangement, with an uninterrupted displacement of such combination of an uninterrupted band 76 and typically uninterrupted successive semiconductor substrate-sections 44, the

thereby also maintaining of an almost parallel position of such upward sidewall of this folio 24 with the therewith corresponding upward sidewall 88 of the tunnel-passage 18 by means of successive flows of gaseous medium along the upperwall thereof the thereby maintaining of the following: a) a guidance of this band along such upward sidewall of the tunnel-passage 18; and

b) a positioning of the upward sidewall 92 of the successive folio-sections 74 against the upward sidewall 90 of this deepened upperwall-section 84 of this band 76.

Figure 8 shows for the semiconductor installation 10 means on behalf of the establishing of during its operation therein in the entrance-section 20 of the therein located semiconductor tunnel-arrangement 12 the joining of the front-side of the following folio 24 with the back-side 94 of the already displacing folio 24.

Thereby contains these folios 24 at their front-side the flat opward sidewall 96 and their back-side 94, with thereby an at-least almost parallel condition thereof.

In a favourable execution of such folio, contained in the storage-roll 68, thereby the length thereof is larger than 20 meters and even possibly 5000 meter on behalf of during approx. 2 months the maintaining of a continuous uninterrupted displacement' thereof therethrough and with therein at the same time the maintaining of the uninterruptedly taking place of the successive semiconductor processings therewith.

Such semiconductor processings taking place under a speed of displacement of this folio of typically only 2 mm per second.

As a result, at-least approx. 3 hours, before a following folio has to be brought-in.

Thereby contains the tunnel-entrancesection 20 in a favourable execution of the upper-side thereof the open central section 100 on behalf of inspection of such an established critical joining of these successive folios and whereby at both transverse ends 88 of the tunnel-passage 18 the taking place of guidance of the following brought-im folio .

Thereby typically at-least in addition by means of successive flows of gaseous medium along this new folio in the direction of the foregoung folio, with the maintaining of an to a small extent higher speed of the front-section of this folio as that of the foregoing folio until such a joining has taken place.

The cleaning device 66 thereby contains further such means, that therein the also taking place of removal of an eventually upon the thereby applied band 76 found-again substances, Figure 6.

Such limited length of this tunnel is also possible due to the appliance of successive semiconductor substrate- sections 44, with typically only one semiconductor top- layer and from-which in the device 62 by means of diversion thereof the accomplishing of semiconductor chips 72 with only such a single semiconductor structure thereof,

Figures 1 and 2.

Such possible only one semiconductor top-layer in-stead of a number of above each other located semiconductor layers, as until now commonly is used in the existing semiconductor industry under the appliance of almost cylindrical semiconductor wafers and at-least also

individual semiconductor processing-modules with vertical metallic in-between connections.

Such also in-view of the already possible appliance of semiconductor grooves, filled with a metallic substance, in such top-layer, with a width thereof of even below 40 nanometer .

In an alternative possible execution of such folio 24 its length is less than that of this semiconductor tunnel- arrangement 12, through-which a thereby required often bringing-in of such following folio, typically thereby within 2 hours.

Furthermor, such a bringing-in of the following folio is at-least supported by hand until its joining with this foregoing folio has taken place and whereby subsequently the following displacement of this combination of folios remains maintained by means of these flows of gaseous medium and whereby such joining remains maintained.

By means of such an in the entrance-section of the tunnel-arrangement established joining of the following folio with its foregoing folio, consequently thereby the possible at-least also uninterrupted supply and sischarge of semiconductor processing-medium toward and from the successive strip-shaped semiconductor tunnel-arrangement remains taking place.

Consequently, a totally new semiconductor transfer/ processing-technology under the establishing of semiconduc- chips, with thereby the application of any possible

semiconductor substance, a combination of substances and semiconductor methods for at-least also such semiconductor folio, as also is shown and described in at-least the at the same time applied - and in the nearest future to be applied PCT Patent-Applications by the Applicant.

Such in addition by the in these PCT Patent Applications shown and described additional means and methods on behalf of at-least also a highly effective and particular erection of at-least one semiconductor layer upon such folio as an at-least temporary semiconductor underlayer of the in this semiconductor installation established successive semiconductor substrate-sections, from-which by means of dividing thereof the obtaining of such semiconductor chips.

In Figure 9 furthermore an in-part upper-view is shown of the successive, uninterruptedly displacing through the device 62 behind the tunnel-exit 52, Figure 1, displacing successive semiconductor substrate-sections 44.

Thereby such semiconductor substrate-section 44 consists of a number of successive, in transverse direction aside each other located semiconductor substrate-sections, from- which in this device by means of their division the accomplishing of semiconductor chips 72, typically contai- ning only one single semiconductor top-layer upon the typically synthetic folio 24 as a definite semiconductor underlayer thereof.

Figure 10 shows very enlarged an upper-view of the accomplished semiconductor chip 72, containing upon this typically synthetic under-layer the semiconductor top- layer 104 in a stitch-together condition, as a replacement of the existing semiconductor chips, with a number of above each-other located semiconductor layers, with in- between metallic semiconductor connections.

Thereby typically the dimension of such chip 72 in transverse direction is the same as that in its length- direction .

Furthermore, for such semiconductor chip any possible number of electric connections 106 and any possible position thereof.

Furthermore, for the semiconductor lowest layer of such chip any possible combination of above each other situated micrometer high layers, as for-instance a di-electric lower-layer, a metallic in-between layer and a di-electric layer above thereof.

Furthermore, the possible appliance of a number of above each other positioned semiconductor layers, with in- between metallic connections. Furthermore ' , this semiconductor installation contains such means, that therewith by means of the in the upper- tunnelblock of the therein located semiconductor tunnel- arrangement inserted strip-shaped lightning-pattern

applying-device the taking place of the upon the dielectric top-layer of the successive underneath displacing semiconductor substrate-sections applying of a strip- shaped lightning-pattern.

Thereby thereto in both transverse outer ends of such semiconductor band or folio the establishing of successive openings 100, Figure 8, on behalf of by means of this band or folio the also therewith displacing of this lightning- patron applying-device together with the thereupon applied successive semiconductor substrate-sections during the lightning-process.

In such semiconductor installation 10, with the therein located semiconductor substrate transfer /processing

tunnel-arrangement 12, at least also the appliance of a folio-storageroll 22 near the entrance thereof on behalf of during its operation the taking place of an uninterrupted displacement of the successive folio-sections therethrough, with thereby in the device 62, located behind the exit 52 of this tunnel-arrangement, at least also by means of a division of the successive, therein uninterruptedly

supplied semiconductor substrate-sections, the accomplishing of semiconductor chips 72 with at-least also an established semiconductor layer-erection.

Thereby by means of the in this tunnel-arrangement accomplishing of only one single semiconductor layer, functioning also as a semiconductor top-layer of the successive, uninterruptedly therethrough displacing

semiconductor substrate-sections, at-least also the

following semiconductor layer-erections of such, out of that obtained semiconductor chips:

a) the combination of a synthetic under-layer and a dielectric top-layer; or

b) the combination of a synthetic under-layer, a metallic in-between layer and a di-electric top-layer; or c) the combination of a metallic under-layer and a dielectric top-layer; or

d) exclusively a di-electric (top) layer; or

e) the combination of a di-electric under-layer, a metallic in-between layer and a di-electric top-layer.

If however in such tunnel-arrangement the accomplishing of a number of above each other located primary semiconductor layers with in-between secundary layers, containing a number of metallic in-between connections between these primary semiconductor layers, thereby the possible taking place of some of the under a), C) or E) mentioned semiconductor layer-erections of such, out of that obtained semiconductor chips.

If in such a semiconductor tunnel-arrangement only exclusively the application of an uninterrupted metallic semiconductor substrate support-band 76, with the roll- arrangements 64 and 78 near the end- and entrance-section thereof, as is shown in Figure 6, and with therein the accomplishing of successive semiconductor substrate-sections with only a single semiconductor layer, functioning

thereby also as the semiconductor top-layer thereof, thereby however only the established semiconductor layer- structures, from-which the obtaining of semiconductor chips, as mentioned under d) and e). as obtained in such device.

If however the appication of the combination of such uninterrupted semiconductor substrate supply /transfer-band and the thereupon from a storageroll-arrangement supplied uninterrupted semiconductor folio- sections , thereby supplied at-least also the under a) through e) mentioned possible semiconductor layer-structures of the therefrom obtained semiconductor chips.

Such semiconductor synthetic folio or -layer contains a sufficiently high melt-temperature and a - di-electric value thereof to enable its functioning as at-least a semiconductor underlayer of the successive, in this

semiconductor tunnel-arrangement established semiconductor substrate-sections and subsequently in a thereupon located device thereof also by means of separation thereof the establishing of semiconductor chips with such semiconductor underlayer thereof.

Furthermore, also an at-least paper folio in a thereto suitable execution and composition thereof applicable for at-least such semiconductor underlayer of the successive, in this tunnel-arrangement accomplished semiconductor substrate-sections and in the device, located behind thereof, by means of dividing thereof the establishing of successive semiconductor chips.

Furthermore, each possible size of such typically square semiconductor chips with such an at-least paper underlayer in both its length- and transverse direction.

In a favourable execution of such synthetic or paper folio thereby in a device, whether or not contained in this semiconductor installation, in at-least this central semiconductor processing-section of its tunnel-arrangement the taking place of the application of a micrometer high layer of a di-electric substance on behalf of in this ! tunnel-arrangement the accomplishing of with a metallic substance filled nanometer sized recesses in the topwall of the therein accomplished successive semiconductor substrate-sections and thereupon by at-least also a

dividing thereof in the thereupon located device the establishing of semiconductor chips with such semiconductor lower- and top-layer thereof,

Furthermore, in this tunnel-arrangement by means of the successive folio/band-sections in combination with successive flows of lock-medium in both transverse ends of the tunnel-passage a medium-lock is maintained on behalf of in particular the preventage of the escape of semiconductor processing-medium from the primary upper-split, with its escape into the lower split and oppositely medium from the lower-split into this upper-split.