Abstract: Provided are a three-dimensional stack field-effect transistor (3DS FET) and a method of manufacturing the same. According to embodiments, the 3DS FET includes: a lower active region arranged on a substrate, an upper active region above the lower active region and a gate stack. The lower active region includes: a fin extending in a first direction on the substrate, and lower source/drain portions at two opposite ends of the fin in the first direction, respectively. The upper active region includes: one or more nanosheets, a lowest nanosheet is spaced apart from the fin in a vertical direction relative to the substrate, and upper source/drain portions at two opposite ends of the one or more nanosheets in the first direction, respectively. The gate stack extends in a second direction intersecting with the first direction so as to intersect with the fin and the one or more nanosheets.

Abstract: The present invention discloses a method and a device for non-destructive sorting of fertilization information of hatching eggs before incubation. The method comprises the following steps: obtaining a first time sequence feature of hatching eggs and collecting spectrum data of the hatching eggs according to the first time sequence feature; preprocessing the spectrum data; selecting the preprocessed spectrum data to obtain a feature band; constructing a hatching egg classification neural network model and training the hatching egg classification neural network model; classifying the hatching egg information according to the feature band by using the trained hatching egg classification neural network model to obtain fertilization information; and obtaining a second time sequence feature of the hatching eggs, and sorting the hatching eggs. The present invention improves the precision of detecting the fertilization information of hatching eggs.

Abstract: A device binding method is provided. The method includes: a user terminal collects a signal at a collection position, generates a first signal fingerprint, and sends the first signal fingerprint and a corresponding first account to a server. An intelligent terminal collects a signal at a set position, generates a second signal fingerprint, and sends the second signal fingerprint and a corresponding device identifier of the intelligent terminal to the server. The server determines that the second signal fingerprint matches the first signal fingerprint, to determine that the second signal fingerprint corresponds to the first account. The server binds the intelligent terminal to the first account based on a correspondence between the second signal fingerprint and the device identifier of the intelligent terminal.

Abstract: A three-dimensional model reconstruction method includes: sending three-dimensional model reconstruction indicator information to a server device, where the three-dimensional model reconstruction indicator information is used for representing a three-dimensional model reconstruction requirement; receiving an image acquisition solution sent by the server device, where the image acquisition solution is used for guiding acquisition of a two-dimensional image of a reconstructed object; and acquiring the two-dimensional image of the reconstructed object according to the image acquisition solution, where the two-dimensional image is used for three-dimensional model reconstruction.

Abstract: An information aggregation method includes receiving an aggregation resource creation request, determining an identifier of an aggregated resource and an aggregation manner according to the aggregation resource creation request, creating an aggregation resource according to the determined identifier of the aggregated resource and the determined aggregation manner, where an attribute of the aggregation resource includes the identifier of the aggregated resource and the aggregation manner, and performing information aggregation according to the created aggregation resource.

Abstract: A terminal device sends resource access request information to a server, and the resource access request information carries a user identity and an identifier of a to-be-accessed resource. The server performs authentication on the user identity. If the authentication succeeds, the server obtains location information of the terminal device, and the location information includes geographical location information and positioning assistance information. The server attempts to verify the location information of the terminal device. If the verification succeeds, the server sends an access token corresponding to the identifier of the to-be-accessed resource to the terminal device. The terminal device obtains the to-be-accessed resource based on the access token.

Abstract: A device binding method is provided. The method includes: a user terminal collects a signal at a collection position, generates a first signal fingerprint, and sends the first signal fingerprint and a corresponding first account to a server. An intelligent terminal collects a signal at a set position, generates a second signal fingerprint, and sends the second signal fingerprint and a corresponding device identifier of the intelligent terminal to the server. The server determines that the second signal fingerprint matches the first signal fingerprint, to determine that the second signal fingerprint corresponds to the first account. The server binds the intelligent terminal to the first account based on a correspondence between the second signal fingerprint and the device identifier of the intelligent terminal.

Abstract: Embodiments include a method for triggering an operation in an Internet of Things (IoT) system, wherein the IoT system comprises multiple IoT terminals. The method is implemented in a service capability middleware. The method includes obtaining subject resource information of a subject resource, the subject resource information comprising detected data information of detected data of the subject resource and operation resource information about an operation resource associated with the subject resource, the service capability middleware being integrated in a gateway or a service platform, receiving the detected data of the subject resource from the multiple IoT terminals, determining that the detected data meets a condition for sending an operation request to an object resource, and sending the operation request to the object resource, the condition and the object resource being determined according to the operation resource information.

Abstract: A mobile network platform creates a device group according to a member device supporting a mobile network multicast communication manner in a Machine-to-Machine Communications (M2M) group, generates an identifier of an external group corresponding to the device group, and requests a service capability exposure function (SCEF) to create the external group according to the identifier of the external group and an external device identifier of the member device supporting the mobile network multicast communication manner. When receiving an access request for the M2M group, the mobile network platform obtains the device group in the M2M group, learns of the corresponding external group, and then requests the SCEF to access the member device in the external group in a multicast communication manner. Hence, an amount of information generated due to interaction between an M2M platform and an M2M device is reduced, while reducing resource overheads.

Abstract: This application discloses a device state synchronization method. The method performed by a common capability component, the method includes: receiving a first representation state instance resource creation request sent by an application, where the first representation state instance resource creation request includes a device state attribute; creating a first representation state instance resource based on the first representation state instance resource creation request and a created second representation state instance resource; sending a device state update request to a device, where the device state update request includes the device state attribute; receiving an actual state instance resource creation request sent by the device; creating an actual state instance resource based on the actual state instance resource creation request; and sending to the application, information indicating that an actual state resource is successfully created.

Abstract: The method includes: receiving, by a first managed object device, a first transaction resource creation request that is sent by an application server and includes an identifier of a first to-be-operated resource, a first execution time, and a first to-be-executed operation; receiving, by a second managed object device, a second transaction resource creation request that is sent by the application server and includes an identifier of a second to-be-operated resource, a second execution time, and a second to-be-executed operation; successfully creating, by the first managed object device, a first transaction resource according to the first transaction resource creation request, and successfully creating, by the second managed device, a second transaction resource according to the second transaction resource creation request.

Abstract: A message sending method includes obtaining, by a group management server, a message sending period interval corresponding to a first group. The the message sending period interval includes a start time and an end time. The method also includes sending, by the group management server, the message sending period interval to a group member of the first group. The method further includes receiving, by the group management server, a first message sent by an application server. The method additionally includes sending, by the group management server, the first message to the group member of the first group within the message sending period interval.

Abstract: An information aggregation method includes receiving an aggregation resource creation request, determining an identifier of an aggregated resource and an aggregation manner according to the aggregation resource creation request, creating an aggregation resource according to the determined identifier of the aggregated resource and the determined aggregation manner, where an attribute of the aggregation resource includes the identifier of the aggregated resource and the aggregation manner, and performing information aggregation according to the created aggregation resource.

Abstract: Embodiments include a method for triggering an operation in an Internet of Things (IoT) system, wherein the IoT system comprises multiple IoT terminals. The method is implemented in a service capability middleware. The method includes obtaining subject resource information of a subject resource, the subject resource information comprising detected data information of detected data of the subject resource and operation resource information about an operation resource associated with the subject resource, the service capability middleware being integrated in a gateway or a service platform, receiving the detected data of the subject resource from the multiple IoT terminals, determining that the detected data meets a condition for sending an operation request to an object resource, and sending the operation request to the object resource, the condition and the object resource being determined according to the operation resource information.

Abstract: A resource acquiring method relates to the field of machine-to-machine communications (M2M) technologies, where the method is used by a consumer application to acquire a producer data resource generated by a producer application, and includes receiving a request message that is used to acquire the producer data resource and that is sent by the consumer application, where the request message carries indication information that is used to instruct to update the producer data resource and return an updated producer data resource, acquiring current moment data from the producer application, updating the producer data resource using the current moment data, and returning the updated producer data resource to the consumer application. Hence, a problem of mismatching between data generated by the producer application and data used by the consumer application is resolved.

Abstract: An information aggregation method includes receiving an aggregation resource creation request, determining an identifier of an aggregated resource and an aggregation manner according to the aggregation resource creation request, creating an aggregation resource according to the determined identifier of the aggregated resource and the determined aggregation manner, where an attribute of the aggregation resource includes the identifier of the aggregated resource and the aggregation manner, and performing information aggregation according to the created aggregation resource.

Abstract: Embodiments provide an operation triggering method and apparatus for machine-to-machine communications. The method is implemented in a service capability middleware, and includes retrieving a change result of the content of the subject resource stored in the service capability middleware; retrieving a representation of the operation resource associated with the subject resource, where the representation of the operation resource includes a condition for sending an operation request to an object resource and a uniform resource identifier of the object resource; constructing the operation request for the object resource when it is determined that the change result meets the condition for sending the operation request to the object resource in the representation of the operation resource; and sending the operation request to the object resource.

Abstract: A semantic validation method, applied to a Machine-to-Machine Communications (M2M) system, where the method includes receiving, by an apparatus storing a semantic description resource, an operation request related to a first semantic description resource, including semantic information of the first semantic description resource, an association relationship between the first semantic description resource and another semantic description resource, and a uniform resource identifier (URI) of an ontology referenced by the first semantic description resource, determining that the first semantic description resource is associated with the semantic description resource, sending a semantic validation request message to an apparatus that stores the ontology referenced by the first semantic description resource. Hence, accuracy of a resource and data shared between industries and applications using a public capability of the M2M system can be ensured in a case of no priori knowledge.

Abstract: A semantic validation method, applied to a Machine-to-Machine Communications (M2M) system, where the method includes receiving, by an apparatus storing a semantic description resource, an operation request related to a first semantic description resource, including semantic information of the first semantic description resource, an association relationship between the first semantic description resource and another semantic description resource, and a uniform resource identifier (URI) of an ontology referenced by the first semantic description resource, determining that the first semantic description resource is associated with the semantic description resource, sending a semantic validation request message to an apparatus that stores the ontology referenced by the first semantic description resource. Hence, accuracy of a resource and data shared between industries and applications using a public capability of the M2M system can be ensured in a case of no priori knowledge.

Abstract: A mobile network platform creates a device group according to a member device supporting a mobile network multicast communication manner in a Machine-to-Machine Communications (M2M) group, generates an identifier of an external group corresponding to the device group, and requests a service capability exposure function (SCEF) to create the external group according to the identifier of the external group and an external device identifier of the member device supporting the mobile network multicast communication manner. When receiving an access request for the M2M group, the mobile network platform obtains the device group in the M2M group, learns of the corresponding external group, and then requests the SCEF to access the member device in the external group in a multicast communication manner. Hence, an amount of information generated due to interaction between an M2M platform and an M2M device is reduced, while reducing resource overheads.