Cias, Inc.

Oncard Marketing, Inc.

Other

Leonard Frank

Leonard Storch

Ernst Van Haagen

Electronic delivery of counterfeit-resistant documents exchangeable for value such as admission tickets, gift certificates, coupons, vouchers, etc. directly to the person who ordered the documents over an open communications network such as the Internet. A first party orders a document from a second party, and the second party electronically delivers the ordered, counterfeit-resistant document to a device designated by the first party. For example, the document may be electronically ordered using a PC, and a printer coupled to the PC may print the document. Alternatively, the electronic information may be provided to a fax, or the document ordered by telephone and electronically delivered to a PC or fax. The document may be made counterfeit resistant by assigning unique information to each document of a given type, e.g., admission tickets, and checking the uniqueness of a document prior to allowing it to be exchanged for value.

Electronic delivery of admission tickets direct to a purchaser

Electronic delivery of counterfeit-resistant documents exchangeable for value, such as coupons, gift certificates, vouchers, admission tickets etc., directly to the person who ordered the documents over an open communications network such at the Internet. A first party orders a document from a second party, and the second party electronically delivers the ordered, counterfeit-resistant document to a device designated by the first party. For example, the document may be electronically ordered using a PC, and a printer coupled to the PC may print the document. In one embodiment, the first party transmits unsolicited offers over the open communications network. The document may be made counterfeit resistant by assigning unique information to each document of a given type, e.g., coupons, gift certificates, vouchers, admission tickets etc., and checking the uniqueness of a document and whether the unique information was previously read prior to allowing it to be exchanged for value.

Electronic delivery of counterfeit resistant documents direct to a purchaser

Electronic delivery of counterfeit-resistant documents exchangeable for value such as admission tickets, gift certificates, coupons, vouchers, etc. directly to the person who ordered the documents over an open communications network such at the Internet. A first party orders a document from a second party, and the second party electronically delivers the ordered, counterfeit-resistant document to a device designated by the first party. For example, the document may be electronically ordered using a PC, and a printer coupled to the PC may print the document. In one embodiment, the first party transmits unsolicited offers over the open communications network. The document may be made counterfeit resistant by assigning unique information to each document of a given type, e.g., admission tickets, and checking the uniqueness of a document and whether the unique information was previously read prior to allowing it to be exchanged for value.

Electronic delivery of counterfeit-resistant documents exchangeable for value such as admission tickets, gift certificates, coupons, vouchers, etc. directly to the person who ordered the documents over an open communications network such at the Internet. A first party orders a document from a second party, and the second party electronically delivers the ordered, counterfeit-resistant document to a device designated by the first party. For example, the document may be electronically ordered using a PC, and a printer coupled to the PC may print the document. In one embodiment, the first party transmits unsolicited offers over the open communications network The document may be made counterfeit resistant by assigning unique information to each document of a given type, e.g., admission tickets, and checking the uniqueness of a document and whether the unique information was previously read prior to allowing it to be exchanged for value.

Electronic delivery of counterfeit-resistant documents exchangeable for value such as admission tickets, gift certificates, coupons, vouchers, etc. directly to the person who ordered the documents over an open communications network such at the Internet. A first party orders a document from a second party, and the second party electronically delivers the ordered, counterfeit-resistant document to a device designated by the first party. For example, the document may be electronically ordered using a PC, and a printer coupled to the PC may print the document. Alternatively, the electronic information may be provided to a fax, or the document ordered by telephone and electronically delivered to a PC or fax. The document may be made counterfeit resistant by assigning unique information to each document of a given type, e.g., admission tickets, and checking the uniqueness of a document prior to allowing it to be exchanged for value.

The new generic bar code decoder system described, with its multistage error correcting, is far more powerful than dedicated reference decode algorithms for popular linear and two dimensional bar codes. For example: the 1-7 and 2-8 EAN and UPC character substitution problems are 100% solved (because EAN and UPC become 100% self-checking with the new decoder); the ink spread tolerance improves, especially for EAN, UPC, Code 128 and Code 16K; far greater levels of random systematic edge noise are tolerated and decoded; even many spike edge errors greater than 0.50X module can be corrected; and, generous levels of acceleration are tolerated. These are all the ways bar code scanning data gets distorted. Using this new generic decoder system, the ultimate linear binary coded binary bar code with error correcting, BCB, also described, performs dramatically better than any other, despite being more compact. Computer simulation testing of the generic bar code decoder has already been conducted on BCB and UPC timing count scan data records that were distorted with various levels of ink spread, noise, spikes and acceleration using new bar code testbench software, all of which is also described including test results, to show the advances that have been made in bar code science.

Bar code decoding using moving averages to break the (N.K.) code barrier

The new generic bar code decoder system described, with its multistage error correcting, is far more powerful than dedicated reference decode algorithms for popular linear and two dimensional bar codes. For example: the 1-7 and 2-8 EAN and UPC character substitution problems are 100% solved (because EAN and UPC become 100% self-checking with the new decoder); the ink spread tolerance improves, especially for EAN, UPC, Code 128 and Code 16K; far greater levels of random systematic edge noise are tolerated and decoded; even many spike edge errors greater than 0.50.times. module can be corrected; and, generous levels of acceleration are tolerated. These are all the ways bar code scanning data gets distorted. Using this new generic decoder system, the ultimate linear binary coded binary bar code with error correcting, BCB, also described, performs dramatically better than any other, despite being more compact. Computer simulation testing of the generic bar code decoder has already been conducted on BCB and UPC timing count scan data records that were distorted with various levels of ink spread, noise, spikes and acceleration using new bar code testbench software, all of which is also described including test results, to show the advances that have been made in bar code science.

Growing community of inventors

New York, NY, United States of America

Leonard Frank