Abstract: Systems and methods are provided for wireless power transfer in a vehicle. A wireless power transfer system can include a high-frequency alternating current (HFAC) inverter electrically coupled to the power source and a transmitter to wirelessly transmit a HFAC power signal to at least one device of a vehicle, such as sensors (e.g., LiDAR, GPS etc.) and cameras. The HFAC power signal provides wireless power and a data signal to the at least one device of a vehicle. The wireless power transfer system can eliminate the need for cabling and wires to provide power to the device. Wireless power transfer can include use or a data modulation circuit and a pulse current source to inject a pulse current to the HFAC power signal as superimposed data. System configurations can power a plurality of devices. Systems can includes a plurality of HFAC inverters and transmitters to power multiple sets of devices.

Abstract: A vehicle power system includes a coil that, in a first operational mode, receives power wirelessly from an external source, a first battery connected to the coil to receive power transferred from the coil while the coil is in the first operational mode, a second battery that receives power from the first battery, and a switch that switches the coil between the first operational mode and a second operational mode in which the coil receives power from the second battery and wirelessly transfers power from the second battery to an electrical load in the vehicle.

Abstract: In one embodiment, a vehicle power system includes a coil that, in a first operational mode, receives power wirelessly from an external source, a first battery connected to the coil to receive power transferred from the coil while the coil is in the first operational mode, a second battery that receives power from the first battery, and a switch that switches the coil between the first operational mode and a second operational mode in which the coil receives power from the second battery and wirelessly transfers power from the second battery to an electrical load in the vehicle.

Abstract: Methods, apparatuses and systems provide technology for a high frequency alternating-current (HFAC) distribution network for a vehicle that includes a plurality of HFAC zones coupled to a direct-current (DC) power source, the plurality of HFAC zones disbursed within the vehicle, where each HFAC zone includes a HFAC resonant inverter to convert DC power to HFAC power and a HFAC bus coupled to the HFAC resonant inverter, the HFAC bus to distribute the HFAC power to one or more loads. The technology includes a CLCL resonant tank circuit having two capacitors and two inductors, a push-pull circuit coupled to the CLCL resonant tank circuit, the push-pull circuit including a pair of switches, and a transformer to couple the inverter to the HFAC bus.

Abstract: Systems and methods are provided for wireless power transfer in a vehicle. A wireless power transfer system can include a high-frequency alternating current (HFAC) inverter electrically coupled to the power source and a transmitter to wirelessly transmit a HFAC power signal to at least one device of a vehicle, such as sensors (e.g., LiDAR, GPS etc.) and cameras. The HFAC power signal provides wireless power and a data signal to the at least one device of a vehicle. The wireless power transfer system can eliminate the need for cabling and wires to provide power to the device. Wireless power transfer can include use or a data modulation circuit and a pulse current source to inject a pulse current to the HFAC power signal as superimposed data. System configurations can power a plurality of devices. Systems can includes a plurality of HFAC inverters and transmitters to power multiple sets of devices.

Abstract: Embodiments of the present disclosure generally relate to a system, apparatus, and method for providing anti-replay protection of data stored in a non-volatile memory device. Some embodiments describe an anti-replay protection (ARP) device that may protect an external non-volatile memory device from replay attacks.

Abstract: Embodiments of the present disclosure generally relate to a system, apparatus, and method for providing anti-replay protection of data stored in a non-volatile memory device. Some embodiments describe an anti-replay protection (ARP) device that may protect an external non-volatile memory device from replay attacks.

Abstract: Systems and methods are provided for prioritizing an order in which to process a plurality of sub-regions of an acquired image of an optical code. A method of processing an optical code in a data reader comprises the steps of receiving data corresponding to a plurality of sub-regions of an acquired image of an optical code, processing according to a processing order the plurality of sub-regions for decodable data corresponding to the optical code, determining based on the step of processing the plurality of sub-regions whether one or more of the plurality of sub-regions contains decodable data, and if it is determined that a sub-region contains decodable data, increasing the processing priority associated with said sub-region. If one or more of the sub-regions having the highest processing priority contains decodable data, the remaining sub-regions do not need to be processed, which may save processing resources and increase the read throughput.

Abstract: Systems and methods are provided for prioritizing an order in which to process a plurality of sub-regions of an acquired image of an optical code. A method of processing an optical code in a data reader comprises the steps of receiving data corresponding to a plurality of sub-regions of an acquired image of an optical code, processing according to a processing order the plurality of sub-regions for decodable data corresponding to the optical code, determining based on the step of processing the plurality of sub-regions whether one or more of the plurality of sub-regions contains decodable data, and if it is determined that a sub-region contains decodable data, increasing the processing priority associated with said sub-region. If one or more of the sub-regions having the highest processing priority contains decodable data, the remaining sub-regions do not need to be processed, which may save processing resources and increase the read throughput.

Abstract: A system (10) includes a data collection device (12) for reading a machine readable data storage medium (38) and generating formatted data in accordance with data manipulation commands of a rules file (43). A protected rule file creation system: i) generates the rule file (43); ii) encrypts the rule file (43) to generate a protected rule file (39) which, when deciphered using a source key (31) yields the rule file (43); and iii) generates a license record (35). The license record (35) comprises the source key (31) and a source identifier (168). A trusted license file distribution system (17) encrypts the license record (35) using a private key (97) of a public/private key pair to generate a license file (41). The data collection device (12) comprises: i) a non-volatile memory storing a reader ID (93) and a public key (95); and ii) a processor (20) operating a decoder (72) and an interpreter (84).

Abstract: A method for interfacing an object identifier reader to at least one application is disclosed. The method may include receiving object identifier data from the object identifier reader. The object identifier data may include information and formatting characters. The method may then involve identifying the information in the object identifier data. At least one application may then be identified to receive the information. Finally, the information may be sent to the at least one application.

Abstract: A method for interfacing an object identifier reader to at least one application is disclosed. The method may include receiving object identifier data from the object identifier reader. The object identifier data may include information and formatting characters. The method may then involve identifying the information in the object identifier data. At least one application may then be identified to receive the information. Finally, the information may be sent to the at least one application.

Abstract: A method for interfacing an object identifier reader to at least one application is disclosed. The method may include receiving object identifier data from the object identifier reader. The object identifier data may include information and formatting characters. The method may then involve identifying the information in the object identifier data. At least one application may then be identified to receive the information. Finally, the information may be sent to the at least one application.

Abstract: A method for interfacing an object identifier reader to at least one application involves receiving object identifier data from the object identifier reader. The object identifier data may include information and formatting characters. The method may then involve identifying the information in the object identifier data. At least one application may then be identified to receive the information. Finally, the information may be sent to the at least one application.

Abstract: A system (10) includes a data collection device (12) for reading a machine readable data storage medium (38) and generating formatted data in accordance with data manipulation commands of a rules file (43). A protected rule file creation system: i) generates the rule file (43); ii) encrypts the rule file (43) to generate a protected rule file (39) which, when deciphered using a source key (31) yields the rule file (43); and iii) generates a license record (35). The license record (35) comprises the source key (31) and a source identifier (168). A trusted license file distribution system (17) encrypts the license record (35) using a private key (97) of a public/private key pair to generate a license file (41). The data collection device (12) comprises: i) a non-volatile memory storing a reader ID (93) and a public key (95); and ii) a processor (20) operating a decoder (72) and an interpreter (84).

Abstract: A method for increasing the readability of a machine-readable graphical code on a printing surface is provided. The method includes receiving a graphical code image. The graphical code image is an electronic representation of a graphical code. The graphical code image includes a white region and a non-white region adjacent to the white region. The method also includes determining a size increase of the non-white region. The size increase indicates how much the size of the non-white region will increase when the graphical code image is printed on the printing surface. The method also includes creating a size compensated graphical code image by reducing the size of the non-white region by an amount that will substantially compensate for the size increase of the non-white region.

Abstract: A method for interfacing an object identifier reader to at least one application is disclosed. The method may include receiving object identifier data from the object identifier reader. The object identifier data may include information and formatting characters. The method may then involve identifying the information in the object identifier data. At least one application may then be identified to receive the information. Finally, the information may be sent to the at least one application.

Abstract: A method for generating a machine-readable graphical code is provided. The method may involve providing a plurality of field identifiers that may be included in the graphical code. The method may also involve receiving a user selection of a subset of the plurality of field identifiers. The method may also involve receiving field contents associated with each field identifier in the subset of the plurality of field identifiers. The method may also involve creating encodable source data by combining the subset of the plurality of field identifiers and the field contents according to predefined rules.

Abstract: A method for increasing the readability of a machine-readable graphical code on a printing surface is provided. The method includes receiving a graphical code image. The graphical code image is an electronic representation of a graphical code. The graphical code image includes a white region and a non-white region adjacent to the white region. The method also includes determining a size increase of the non-white region. The size increase indicates how much the size of the non-white region will increase when the graphical code image is printed on the printing surface. The method also includes creating a size compensated graphical code image by reducing the size of the non-white region by an amount that will substantially compensate for the size increase of the non-white region.

Abstract: A system is disclosed for enhancing a material with machine-readable graphical codes. The system includes a processor and memory in electronic communication with the processor. The memory includes a material that comprises an item. The memory also includes a material enhancing module. The material enhancing module obtains the material and identifies the item in the material. A machine-readable graphical code is then generated that corresponds to the item. The material enhancing module inserts the machine-readable graphical code corresponding to the item into the material.