Abstract: An electronic control unit (ECU), or node, is configured to use a single key for generating requests from a security peripheral for a MAC. The security peripheral includes the stored shared key. The security peripheral may further include a policy enabling it to detect if a request from the V-ECU is valid, in which case it generates a MAC. The security peripheral is also used to store information in a MAC Generate Allow List (MGAL). In some embodiments, the receiving nodes in a network receive data based on a security peripheral's response to a transmit nodes requests for a MAC. The receiving nodes use this knowledge to avoid being spoofed.

Abstract: An electronic control unit (ECU), or node, is configured to use a single key for generating requests from a security peripheral for a MAC. The security peripheral includes the stored shared key. The security peripheral may further include a policy enabling it to detect if a request from the V-ECU is valid, in which case it generates a MAC. The security peripheral is also used to store information in a MAC Generate Allow List (MGAL). In some embodiments, the receiving nodes in a network receive data based on a security peripheral's response to a transmit nodes requests for a MAC. The receiving nodes use this knowledge to avoid being spoofed.

Abstract: The invention relates to a ceramic feedstock comprising the components a), b) and optionally c), wherein component a) is at least one ceramic material, component b) is at least one binder (B) and optional component c) is at least one additive (A). The ceramic feedstock is preferably provided in form of a filament to be employed in three-dimensional (3D) printing techniques, particularly in a FFF printing process. The inventive ceramic feedstock can, therefore, be successfully employed for the 3D printing of support structures and/or separation layers. Further, the invention also relates to three-dimensional objects as such, in particular three-dimensional green bodies, three-dimensional brown bodies or three-dimensional sintered bodies as well as to a process for the preparation thereof.

Abstract: The invention relates to a process for manufacturing a multilayered porous transport layer, the process comprising (a) providing a first feedstock comprising first metal particles and a first polymer binder; and providing a second feedstock comprising second metal particles and a second polymer binder; the first and the second feedstock having a metal powder content of 40 to 70% by volume; and the first feedstock having (i) metal particles with a smaller average particles size, (ii) a higher metal powder content, or (iii) both, metal particles with a smaller average particles size and a higher metal powder content compared to the second feedstock; (b) coextruding the first and the second feedstock to form a film-shaped green body comprising a first layer and a second layer, the second layer being materially connected to the first layer above the melting temperature and or glass transition temperature of the first polymer binder and the second polymer binder; (c) optionally smoothening the film-shaped gr

Abstract: Methods and systems are provided that include a transceiver and one or more processors. The transceiver is configured to at least facilitate receiving an indication of a trigger for service discovery learning for a plurality of control modules for a vehicle. The one or more processors are coupled to the transceiver, and are configured to at least facilitate performing service discovery learning among the plurality of control modules as to services to be offered or required by each of the control modules, storing information as to the services in a non-volatile memory, and after the indication of the trigger and before the services are actually required; and subsequently, when an event occurs in which the services are actually required, requesting and offering the services via the plurality of control modules based on the service discovery learning.

Abstract: An improved system and method for address entry are provided for a user to enter a plurality of addresses into a recipient field associated with an electronic communication. According to embodiments described herein, a first user input is received. The first user input is indicative of a first recipient for an electronic communication, where the first recipient includes a first name and a last name. A second user input is received in addition to the first recipient while the electronic communication is currently addressed to the first recipient. The second user input is indicative of a portion of a second recipient for the electronic communication. An auto-complete list of one or more suggested recipients that correspond to the second user input is displayed while the electronic communication is currently addressed to the first recipient. The one or more suggested recipients do not include the first recipient.

Abstract: An electronic control unit (ECU), or node, is configured to use a single key for generating requests from a security peripheral for a MAC. The security peripheral includes the stored shared key. The security peripheral may further include a policy enabling it to detect if a request from the V-ECU is valid, in which case it generates a MAC. The security peripheral is also used to store information in a MAC Generate Allow List (MGAL). In some embodiments, the receiving nodes in a network receive data based on a security peripheral's response to a transmit nodes requests for a MAC. The receiving nodes use this knowledge to avoid being spoofed.

Abstract: A vehicular communication controller includes a microcontroller (MCU) located within a vehicle to publish a newly defined protocol data unit (PDU) including a header and a payload portion to a destination device. The destination device may utilize a first protocol or a second protocol. If the destination device utilizes the first protocol that includes an automotive/embedded communication protocol then the MCU serializes the payload portion of the PDU and binds the PDU to the first protocol. The destination device may then receive the PDU using the first protocol, deserialize the payload portion, and remove the header leaving the payload portion unchanged and recreate, based on the deserialized payload portion, the PDU.

Abstract: Mobile apparatuses and methods are provided that utilize visual marker detection (VMD) systems to determine and/or verify one or more locations in an area/room at which a mobile apparatus has been arranged and/or to determine and/or verify a mobile apparatus has been suitably positioned at a preset location in an area/room. Moreover, mobile apparatuses and methods are provided that utilize VMD systems to affect the operation of a mobile apparatus, particularly when and/or what manner the apparatus is operated. Furthermore, mobile apparatuses and methods are provided that utilize VMD systems to determine whether a mobile apparatus has moved to other locations in an area/room in a particular time frame, such as during operation of the apparatus. In addition, mobile apparatuses and methods are provided that utilize VMD systems to convey information that is specific to the location of the apparatus.

Abstract: A method for detecting MERS-CoV at high sensitivity and specificity using IgY antibodies that bind to MERS-CoV N protein, its fragments and domains. Isolated or purified IgY monospecific antibodies to MERS-CoV N protein.

Abstract: A method for detecting MERS-CoV at high sensitivity and specificity using IgY antibodies that bind to MERS-CoV N protein, its fragments and domains. Isolated or purified IgY monospecific antibodies to MERS-CoV N protein.

Abstract: Plant-based, edible vaccines are provided. The vaccines are or are made from plants that are genetically engineered to express antigens of disease-causing microbes, for example, antigens of the MERS-CoV virus, such as the S1 subunit of the spike protein.

Abstract: A method for detecting MERS-CoV at high sensitivity and specificity using IgY antibodies that bind to MERS-CoV N protein, its fragments and domains. Isolated or purified IgY monospecific antibodies to MERS-CoV N protein.

Abstract: A system for verifying a tool for use in a surgical procedure includes a mechanical interface configured to be affixed to a portion of a patient's anatomy, wherein the mechanical interface comprises at least a first portion having a first diameter and a second portion having a second diameter. The system further includes a probe configured to be inserted into the mechanical interface to establish a checkpoint location, and a computing system configured to determine a location of a portion of the probe when the probe is inserted a maximum distance into the mechanical interface, wherein the location of the portion of the probe establishes the checkpoint location. The computing system is further configured to verify a surgical tool by comparing the checkpoint location to a location of a portion of the surgical tool when the surgical tool is inserted a maximum distance into the mechanical interface.

Abstract: An improved system and method for address entry are provided for a user to enter a plurality of addresses into a recipient field associated with an electronic communication. According to embodiments described herein, a first user input is received. The first user input is indicative of a first recipient for an electronic communication, where the first recipient includes a first name and a last name. A second user input is received in addition to the first recipient while the electronic communication is currently addressed to the first recipient. The second user input is indicative of a portion of a second recipient for the electronic communication. An auto-complete list of one or more suggested recipients that correspond to the second user input is displayed while the electronic communication is currently addressed to the first recipient. The one or more suggested recipients do not include the first recipient.

Abstract: A method for joint replacement is provided. A representation of a first bone is created, and a representation of a second bone is created. Bone preparation for implanting a first implant on the first bone is planned. The first bone to receive the first implant is prepared by manipulating a surgical tool to sculpt the first bone. Bone preparation for implanting a second implant on the second bone after preparing the first bone is planned. The second bone to receive the second implant is prepared by manipulating the surgical tool to sculpt the second bone.

Abstract: A channel order that is specific to a population of access points is stored in a wireless local area network client device. The order of channels in the channel order represents the decreasing relative prevalence of access point deployment in the population. The wireless local area network client device scans for wireless local area networks according to the channel order.

Abstract: A system for verifying a tool for use in a surgical procedure includes a mechanical interface configured to be affixed to a portion of a patient's anatomy, wherein the mechanical interface comprises at least a first portion having a first diameter and a second portion having a second diameter. The system further includes a probe configured to be inserted into the mechanical interface to establish a checkpoint location, and a computing system configured to determine a location of a portion of the probe when the probe is inserted a maximum distance into the mechanical interface, wherein the location of the portion of the probe establishes the checkpoint location. The computing system is further configured to verify a surgical tool by comparing the checkpoint location to a location of a portion of the surgical tool when the surgical tool is inserted a maximum distance into the mechanical interface.

Abstract: The invention relates to a surgical system and, more particularly, to a surgical system and method for verifying calibration of a surgical device. The surgical system or method can be configured to perform the steps of: identifying an interface on an anatomy of a patient, determining a position of a checkpoint of the interface in a coordinate frame of reference, contacting the interface with a portion of a surgical tool of the surgical device, determining a position of the portion of the surgical tool in the coordinate frame of reference, and determining whether the position of the portion of the surgical tool has an expected correspondence to the position of the checkpoint. The interface may comprise a painted portion of a bone of the patient, a divot made in the bone, or a mechanical interface that includes a portion configured to be affixed to the bone and an interface portion that is configured to be contacted by the portion of the surgical tool.

Abstract: A surgical apparatus includes a surgical device, configured to be manipulated by a user to perform a procedure on a patient, and a computer system. The computer system is programmed to create a representation of an anatomy of a patient; to associate the anatomy and a surgical device with the representation of the anatomy; to manipulate the surgical device to perform a procedure on a patient by moving a portion of the surgical device in a region of the anatomy; to control the surgical device to provide at least one of haptic guidance and a limit on manipulation of the surgical device, based on a relationship between the representation of the anatomy and at least one of a position, an orientation, a velocity, and an acceleration of a portion of the surgical device; and to adjust the representation of the anatomy in response to movement of the anatomy during the procedure.