1031 results about "Product identification" patented technology

A digital point-of-sale system for determining key performance indicators (KPIs) at a point-of-sale includes a product identification unit and a realogram creation unit. The product identification unit is configured to receive a captured image of a product display and to identify products in the captured image by comparing features determined from the captured image to features determined from products templates. The realogram creation unit is configured to create a realogram from the identified products and product templates. A product price KPI unit is configured to identify a product label proximally located to each identified product, and to recognize the product price on each product label. Each product price is compared to a predetermined range of prices to determine whether the product label proximally located to the identified product is a correct product label for the identified product.

Methods, systems, and devices are disclosed for transforming product code snapshots into real-time, offer-driven electronic purchase transaction notifications that minimize fraud. In one embodiment, a smart phone scans a product identifier from a product package, a server accesses a products database for product purchase offers associated with the product identifier, a user authorizes a credit card from his or her wallet to charge, and then product purchase offers or other credit card offers (for loyalty points or otherwise) are provided to the user mobile device. After a user has purchased an item while in the aisle of the store, the user's smart phone displays a barcoded electronic receipt that can be scanned by the exit so that the consumer can walk out with the produce. In some embodiments, a video chat is requested by a customer service representative and a transaction risk score is lowered based on acceptance of the video chat.

In some arrangements, product packaging is digitally watermarked over most of its extent to facilitate high-throughput item identification at retail checkouts. Imagery captured by conventional or plenoptic cameras can be processed (e.g., by GPUs) to derive several different perspective-transformed views—further minimizing the need to manually reposition items for identification. Crinkles and other deformations in product packaging can be optically sensed, allowing such surfaces to be virtually flattened to aid identification. Piles of items can be 3D-modelled and virtually segmented into geometric primitives to aid identification, and to discover locations of obscured items. Other data (e.g., including data from sensors in aisles, shelves and carts, and gaze tracking for clues about visual saliency) can be used in assessing identification hypotheses about an item. Logos may be identified and used—or ignored—in product identification. A great variety of other features and arrangements are also detailed.

The product information distribution system (20) comprises: a database (8) having records of user purchasable products, each of the records including fields for at least identification and geographical availability of a product, an input means (15) for receiving input data from a user related to a preferred product which is selected from one of said product identification fields of said records, a distance value and a preferred geographical location from which the preferred product is to be sourced, searching means (7) for searching the database according to the input data and for determining a search result, the search result relating to those of the records including products meeting the product identification fields and available within a boundary determined by the distance value of the preferred geographical location, and an output display means (14) for displaying the search result to the user.

A method and apparatus for drug product tracking (or other pharmaceutical, health care or cosmetics products, and/or the packages or containers they are supplied with) using diffraction grating-based encoded optical identification elements 8 includes an optical substrate 10 having at least one diffraction grating 12 disposed therein. The grating 12 has one or more colocated pitches Λ which represent a unique identification digital code that is detected when illuminated by incident light 24. The incident light 24 may be directed transversely from the side of the substrate 10 (or from an end) with a narrow band (single wavelength) or multiple wavelength source, and the code is represented by a spatial distribution of light or a wavelength spectrum, respectively, or a combination thereof. The encoded element 8 may be used to label any desired item, such as drugs or medicines, or other pharmaceutical or health care products or cosmetics. The label may be used for many different purposes, such as for sorting, tracking, identification, verification, authentication, anti-theft/anti-counterfeit, security/anti-terrorism, or for other purposes. In a manufacturing environment, the elements 8 may be used to track inventory for production information or sales of goods/products. Such labeling provides product identification at the pill or liquid medicine level, which provides traceability of these products to their manufacturer, thereby reducing counterfeit products in the marketplace. Also, the elements 8 may be incorporated into a film, liquid, coating or adhesive tape at attached to the product package.

A server for registration of products may include a processor and computer storage. The processor may be configured to receive, via a network, a communication from a product application executed on a computing device, the communication including a product identification (ID) associated with a product and an indication of registration of the product by a user of the product application. The processor may further be configured to register the product at least by storing, in the computer storage, the product ID and a relationship between the product and an identification of the user of the product application. The processor may further be configured to send a subsequent communication to the product application on the computing device based on the registration of the product.

A system and method for crediting fees and commissions for the use by customers of mobile phones to search for product information directly from merchants or indirectly through product information aggregators. Further it provides for crediting fees and commissions for sending product identification to other customer's mobile phones. It supports third party use of the system to distribute specific sets of product instances accessible by users of a private label system.

Systems and methods for product identification using a URL are disclosed here. One embodiment includes generating a plurality of uniform resource locators (URLs), each URL being unique for each item of a set of items, each URL to provide access to the product information associated with each item. Another embodiment includes providing the plurality of URLs to be separately marked on the set of items.

The present invention is a method and apparatus for protection of products and packaging against counterfeiting using dedicated authentication protocol coupled with portable devices. It is based on the product identification information, i.e., PIN, generated by the product manufacturer, stored in the product database and added to product or packaging in an open and/or a hidden form. The open part is directly available to the consumer before buying, opening or consuming the product or package or damaging its integrity while the hidden part is only revealed after these operations. The hidden information can also be disappearing after a predefined interval of time or number of trials or usages. Both parts are communicated to the authentication server in a predefined order to verify the product or package authenticity. The presence, absence, or multiple requests for the same product PIN, confirm or reject product authenticity or detect attempt at attacking the system or at using counterfeited products.

An electronic identification tag, usually in very small size, responds to a reader with an identification code unique to the object to which the tag is attached. The stand-alone device responds to a reader signal by storing energy received from the signal, then using the stored energy to generate another signal that is encoded with identification information. In operation, a reader generates RF energy which can reach a multiplicity of such tags over a distance of several meters. The system minimizes power requirements for the tag by minimizing intelligence in the IC. Use of a transmit frequency which is different from the reader's power frequency reduces interference between the power pulse and information pulse, eliminates the need for filters and enables the multiplied clock reference frequency as the transmit carrier frequency.

Methods and apparatus for monitoring remotely located objects with a system comprised of at least one master data collection unit, any number of remote sensor units, and a central data collection server are described. The master unit is configured to monitor any object, mobile or stationary, including monitoring multiple remote sensor units associated with the objects being monitored. The master unit may be in a fixed location, or attached to a mobile object. The master unit is configured for monitoring objects that enter and leave the area where it is located. The master unit may act as a parent controller for one or more child devices, wherein the child devices can be remote sensors or monitors of various measurable conditions including environmental conditions, substance identification, product identification and biometric identification. The master unit is able to discover new remote sensor units as they enter or leave the area where the master unit is located. The master unit can be remotely reprogrammed. The reprogramming can be accomplished with authenticated instructions.

Briefly, a system for synthesizing a two dimensional code and a logo and the method thereof are presented. The system for generating a synthesized two dimensional code comprises synthesizing means, for synthesizing an original two dimensional code and a visually readable logo to form the synthesized two dimensional code, with at least a part of the visually readable logo being overlapped with the original two dimensional code; identifying means, for reading and identifying the synthesized two dimensional code; and adjusting means, if the synthesized two dimensional code being identified by the identifying means has a code error rate of the synthesized two dimensional code larger than an error correction rate, the adjusting means adjusting the size of the visually readable logo and/or the location of the visually readable logo with respect to the original two dimensional code. The present invention may integrate enterprise logo(s), brand logo(s) and product logo(s) with a two dimensional code as a whole, which may save areas and achieve better effect for brand and product promotion.

An electronic registration system facilitates authorized product returns and reduces the incidence of improper returns. A retailer sales associate is prompted to enter individual product identification information such as an individual serial number. This individual product identification information is then stored in a data base along with the date on which the product was sold and an appropriate UPC code, SKU number or manufacturer code. A check digit algorithm may be used to verify the serial number prior to storage. A sales receipt may be imprinted with at least the date of the transaction and the serial number. When a product is returned, the retailer may cross-reference the serial number on the product with that on the receipt to verify the sales receipt. Otherwise, the database may be searched for pertinent sales information. A customer may also access a return authorization engine via the Internet to obtain return approval, an authorization number, return instructions, etc. to reduce retailer hassle.

An in-mold and in-line decorating method is disclosed which, using a single sheet layer, allows the placement of the highest possible quality graphics into the surface of products made from a variety of moldable thermoplastic, thermoset, and vulcanizable materials using a variety of molding processes. The methods also provide new or improved capabilities for product identification, safety, and serialized tracking.