CN104917799B - A kind of resource sharing method, resource gateway, first node and second node - Google Patents

Abstract

The invention discloses a resource sharing method, comprising: when the first node is in the first working state, the first node establishes the first communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol; the first node establishes the first communication based on the first communication , send a first request to the resource gateway, the first request is used to obtain the second node-related information corresponding to the second node from the resource gateway; the first node receives the first request response fed back by the resource gateway based on the first communication, and obtains from the second node Obtaining related information of the second node in a request response; the first node acquires the first resource from the second node based on the related information of the second node. At the same time, the invention also discloses a resource gateway, a first node and a second node.

Description

A resource sharing method, resource gateway, first node and second node

technical field

The present invention relates to the field of electronic technology, in particular to a resource sharing method, a resource gateway, a first node and a second node.

Background technique

With the development of science and technology, more and more electronic devices have entered people's lives, bringing many conveniences to people. Moreover, these electronic devices can share resources in a home network.

In the prior art, each electronic device mostly adopts a protocol under the UPnP AV framework for data transmission, so as to realize resource sharing among various electronic devices.

However, because the protocol under the UPnP AV architecture supports a wide range of types (for example: supporting independent DVD device playback and sharing), this has high requirements on the compatibility of electronic devices, resulting in higher compatibility of electronic devices It is very difficult, and it often takes a lot of cost to make electronic equipment obtain high compatibility.

Contents of the invention

The embodiment of the present application provides a resource sharing method to solve the technical problem in the prior art that it is difficult for electronic devices to achieve high compatibility due to the use of protocols under the UPnP AV framework to realize resource sharing between electronic devices.

In the first aspect, the present application provides the following technical solutions through an embodiment of the present application:

A resource sharing method, comprising:

When the first node is in the first working state, the first node establishes a first communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol;

The first node sends a first request to the resource gateway based on the first communication, and the first request is used to obtain second node related information corresponding to the second node from the resource gateway;

The first node receives the first request response fed back by the resource gateway based on the first communication, and obtains the second node related information from the first request response;

The first node acquires the first resource from the second node based on the second node related information.

Because HTTP1.1 (HTTP-Hypertext transfer protocol1.1, Hypertext Transfer Protocol 1.1) is the standard web browsing protocol in the Internet (Internetwork, Internet), and most devices support the HTTP1.1 protocol. The HTTP1.1 protocol not only defines the transmission of text data, but also defines the transmission mode of streaming media data. From the point of view of device support and protocol support, HTTP1.1 is fully qualified for home network data transmission. From the perspective of physical equipment, the current smart equipment basically supports the HTTP1.1 protocol; from the perspective of protocol functions, the HTTP1.1 protocol can provide the basis for streaming media data transmission at home. It can be seen from the device support and protocol functions that using the HTTP1.1 protocol has the advantages of higher compatibility and lower implementation costs than using the protocol under the UPnP AV architecture.

It can be seen from the above technical solution that the first node establishes the first communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol, which effectively solves the problem of resource sharing between electronic devices due to the use of protocols under the UPnP AV framework in the prior art. , and the technical problem that it is difficult for electronic devices to achieve high compatibility, realizes that under the premise of ensuring the resource sharing among various devices, it is easier for each electronic device to obtain high compatibility, and realize the technical effect of lower cost .

Optionally, the second node related information includes:

a first time period during which the second node is in a second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the The average power consumption of the second node is a second average power consumption, and the second average power consumption is smaller than the first average power consumption.

Optionally, the first node obtaining the first resource from the second node based on the second node related information includes:

The first node obtains the first time period and/or the second time period from the first request response;

When the first node determines that the second node is currently in the second working state based on the first time period and/or the second time period, the first node based on the first communicating, sending a second request for acquiring the first resource to the resource gateway;

The first node receives the second request response fed back by the resource gateway based on the first communication, and acquires the first resource from the second request response.

Optionally, the first node acquiring the first resource from the second node based on the second node related information includes:

The first node obtains the first time period and/or the second time period from the first request response;

When the first node determines that the second node is currently in the second dormant state based on the first time period and/or the second time period, the first node sets the first The working state is adjusted to the first sleep state; wherein, when the first node is in the first working state, the average power consumption of the first node is the third average power consumption; when the first node is in the In the first sleep state, the average power consumption of the first node is a fourth average power consumption, and the fourth average power consumption is less than the third average power consumption;

When the current time is the start time of the first time period, the first node adjusts the first sleep state to the first working state;

The first node sends a second request for acquiring the first resource to the resource gateway based on the first communication;

The first node receives the second request response fed back by the resource gateway based on the first communication, and acquires the first resource from the second request response.

It can be seen from the above technical solution that when the first node confirms that the second node is currently in the dormant state, the first node also enters the dormant state, and when the second node enters the working state from the dormant state, the first node enters the working state again and sends resources The gateway sends the second request to obtain the first resource, thereby realizing the technical effect of saving the electric energy of the first node.

In the second aspect, the present application provides the following technical solutions through an embodiment of the present application:

A resource sharing method, comprising:

When the resource gateway is in the working state, the resource gateway establishes a first communication with the first node based on the hypertext transfer protocol HTTP1.1 protocol;

The resource gateway receives a first request sent by the first node based on the first communication, and the first request is used to obtain second node related information corresponding to the second node from the resource gateway;

The resource gateway sends, based on the first communication, a first request response containing information about the second node to the first node, so that the first node can obtain information from the first node based on the information about the second node. The second node obtains the first resource.

Because HTTP1.1 is the standard web browsing protocol in the Internet (Internetwork, Internet), and most devices support the HTTP1.1 protocol. The HTTP1.1 protocol not only defines the transmission of text data, but also defines the transmission mode of streaming media data. From the point of view of device support and protocol support, HTTP1.1 is fully qualified for home network data transmission. From the perspective of physical equipment, the current smart equipment basically supports the HTTP1.1 protocol; from the perspective of protocol functions, the HTTP1.1 protocol can provide the basis for streaming media data transmission at home. It can be seen from the device support and protocol functions that using the HTTP1.1 protocol has the advantages of higher compatibility and lower implementation costs than using the protocol under the UPnP AV architecture.

It can be seen from the above technical solution that the resource gateway establishes the first communication with the first node based on the hypertext transfer protocol HTTP1.1 protocol, which effectively solves the problem of resource sharing between electronic devices due to the use of protocols under the UPnP AV framework in the prior art. , and the technical problem that it is difficult for electronic devices to achieve high compatibility, realizes that under the premise of ensuring the resource sharing among various devices, it is easier for each electronic device to obtain high compatibility, and realize the technical effect of lower cost .

Optionally, before the resource gateway receives the first request sent by the first node based on the first communication, the method further includes:

The resource gateway establishes a second communication with the second node based on the hypertext transfer protocol HTTP1.1 protocol;

The resource gateway receives the second node related information sent by the second node based on the second communication.

Optionally, the second node related information includes:

a first time period during which the second node is in a second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the The average power consumption of the second node is a second average power consumption, and the second average power consumption is smaller than the first average power consumption.

Optionally, after the resource gateway sends the first request response including the relevant information of the second node to the first node based on the first communication, the method further includes:

receiving, by the resource gateway based on the first communication, a second request for acquiring the first resource sent by the first node;

sending, by the resource gateway, the second request to the second node based on the second communication;

The resource gateway receives, based on the second communication, a second request response that includes the first resource fed back by the second node;

The resource gateway sends the second request response to the first node based on the first communication.

It can be seen from the above technical solution that the communication between the first node and the second node is conveyed through the resource gateway, thereby realizing the technical effect of data monitoring of the first node and the second node through the resource gateway.

Optionally, the resource gateway always keeps working.

It can be seen from the above technical solution that since the resource gateway is always in the working state, it can respond in time to the first request sent by the first node at any time, thus ensuring the QoS (Quality of Service, quality of service) of the resource gateway. ).

In the third aspect, the present application provides the following technical solutions through an embodiment of the present application:

A resource sharing method, comprising:

When the second node is in the second working state, the second node establishes a second communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol;

The second node sends second node related information to the resource gateway based on the second communication, so that the first node can obtain the second node related information from the resource gateway, and based on the second The node-related information acquires the first resource from the second node.

Because HTTP1.1 is the standard web browsing protocol in the Internet (Internetwork, Internet), and most devices support the HTTP1.1 protocol. The HTTP1.1 protocol not only defines the transmission of text data, but also defines the transmission mode of streaming media data. From the point of view of device support and protocol support, HTTP1.1 is fully qualified for home network data transmission. From the perspective of physical equipment, the current smart equipment basically supports the HTTP1.1 protocol; from the perspective of protocol functions, the HTTP1.1 protocol can provide the basis for streaming media data transmission at home. It can be seen from the device support and protocol functions that using the HTTP1.1 protocol has the advantages of higher compatibility and lower implementation costs than using the protocol under the UPnP AV architecture.

It can be seen from the above technical solution that the second node establishes the second communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol, which effectively solves the problem of resource sharing between electronic devices due to the use of protocols under the UPnP AV framework in the prior art. , and the technical problem that it is difficult for electronic devices to achieve high compatibility, realizes that under the premise of ensuring the resource sharing among various devices, it is easier for each electronic device to obtain high compatibility, and realize the technical effect of lower cost .

Optionally, after the second node sends information about the second node to the resource gateway based on the second communication, the method further includes:

The second node receives a second request sent by the resource gateway, where the second request is a request for the first node to obtain the first resource of the second node;

The second node sends a second request response including the first resource to the resource gateway based on the second communication.

Optionally, before the second node sends related information of the second node to the resource gateway based on the second communication, the method further includes:

the second node determines a first length of time in the second operational state;

the second node determines a second length of time in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is The average power consumption is a second average power consumption, the second average power consumption is smaller than the first average power consumption, and the second node cannot receive the second request.

Optionally, the method also includes:

determining, by the second node, a first time period during which the second node is in the second working state based on the current time, the first time length, and the second time length;

determining, by the second node, a second period of time during which the second node is in the second dormant state based on current time, the first length of time, and the second length of time;

The second node generates the second node related information based on the first time period and the second time period;

The second node sends the second node related information to the resource gateway through the second communication.

Optionally, the method also includes:

When the current time is within the second time period, the second node adjusts the second working state to the second sleep state;

When the current time is within the first time period, the second node adjusts the second sleep state to the second working state.

It can be known from the above technical solution that the second node can be in the working state during the first time period and be in the dormant state during the second time period. Since the second node has an intermittent working mode, compared with a continuous working mode, the second node having an intermittent working mode is more energy-efficient. Therefore, the technical effect of saving the electric energy of the second node is realized.

Optionally, the second node determines the first time length based on the following formula:

Wherein, Ti is the first time length, Sh is the historical use case set, Chu is the historical time use case set, N is the total number of historical statistics, MaxTi is the historical maximum first time length, and MinTi is the historical minimum first time length.

Optionally, the second node determines the second time length based on the following formula:

Wherein, Ts is the second time length, Sh is the historical usage set, Chu is the past historical time usage set, N is the total number of historical statistics, MaxTs is the historical maximum second time length, MinTs is the historical minimum second time length .

In the fourth aspect, the present application provides the following technical solutions through an embodiment of the present application:

A first node comprising:

A first establishment unit, configured to establish a first communication with the resource gateway based on the Hypertext Transfer Protocol HTTP1.1 protocol when the first node is in the first working state;

A first sending unit, configured to send a first request to the resource gateway based on the first communication, where the first request is used to obtain second node related information corresponding to the second node from the resource gateway;

a first receiving unit, configured to receive a first request response fed back by the resource gateway based on the first communication, and obtain information related to the second node from the first request response;

The first acquiring unit is configured to acquire the first resource from the second node based on the second node related information.

Optionally, the second node related information includes:

a first time period during which the second node is in a second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the The average power consumption of the second node is a second average power consumption, and the second average power consumption is smaller than the first average power consumption.

Optionally, the first acquisition unit includes:

A first obtaining module, configured to obtain the first time period and/or the second time period from the first request response;

The first sending module is configured to, when it is determined based on the first time period and/or the second time period that the second node is currently in the second working state, based on the first communication, send The resource gateway sends a second request for acquiring the first resource;

The first receiving module is configured to receive the second request response fed back by the resource gateway based on the first communication, and obtain the first resource from the second request response.

Optionally, the first acquisition unit includes:

A second obtaining module, configured to obtain the first time period and/or the second time period from the first request response;

A first adjustment module, configured to adjust the first working state when it is determined that the second node is currently in the second sleep state based on the first time period and/or the second time period is the first sleep state; wherein, when the first node is in the first working state, the average power consumption of the first node is a third average power consumption; when the first node is in the first In the dormant state, the average power consumption of the first node is a fourth average power consumption, and the fourth average power consumption is smaller than the third average power consumption;

A second adjustment module, configured to adjust the first sleep state to the first working state when the current time is the start time of the first time period;

A second sending module, configured to send a second request for acquiring the first resource to the resource gateway based on the first communication;

The second receiving module is configured to receive a second request response fed back by the resource gateway based on the first communication, and obtain the first resource from the second request response.

In the fifth aspect, the present application provides the following technical solutions through an embodiment of the present application:

A resource gateway comprising:

The second establishing unit is configured to establish the first communication with the first node based on the Hypertext Transfer Protocol HTTP1.1 protocol when the resource gateway is in the working state;

A second receiving unit, configured to receive a first request sent by the first node based on the first communication, where the first request is used to acquire second node related information corresponding to the second node from the resource gateway;

The second sending unit is configured to send to the first node a first request response containing information about the second node based on the first communication, so that the first node can associate information based on the second node The information obtains the first resource from the second node.

Optionally, the resource gateway further includes:

A third establishing unit, configured to establish with the second node based on the hypertext transfer protocol HTTP1.1 before the resource gateway receives the first request sent by the first node based on the first communication second communication;

A third receiving unit, configured to receive the second node related information sent by the second node based on the second communication.

Optionally, the second node related information includes:

a first time period during which the second node is in a second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the The average power consumption of the second node is a second average power consumption, and the second average power consumption is smaller than the first average power consumption.

Optionally, the resource gateway further includes:

a fourth receiving unit, configured to receive, based on the first communication, the A second request sent by the first node for acquiring the first resource;

a third sending unit, configured to send the second request to the second node based on the second communication;

a fifth receiving unit, configured to receive, based on the second communication, a second request response that includes the first resource fed back by the second node;

A fourth sending unit, configured to send the second request response to the first node based on the first communication.

Optionally, the resource gateway further includes:

Hold unit, used to keep working status all the time.

In the sixth aspect, the present application provides the following technical solutions through an embodiment of the present application:

A second node comprising:

A fourth establishment unit, configured to establish a second communication with the resource gateway based on the Hypertext Transfer Protocol HTTP1.1 protocol when the second node is in the second working state;

A fifth sending unit, configured to send second node related information to the resource gateway based on the second communication, so that the first node can obtain the second node related information from the resource gateway, and based on the The second node-related information acquires the first resource from the second node.

Optionally, the second node further includes:

A sixth receiving unit, configured to receive a second request sent by the resource gateway after the second node-related information is sent to the resource gateway based on the second communication, the second request being the first node acquire a request for the first resource of the second node;

A sixth sending unit, configured to send a second request response including the first resource to the resource gateway based on the second communication.

Optionally, the second node further includes:

A first determining unit, configured to determine a first length of time in the second working state before the second node sends information about the second node to the resource gateway based on the second communication;

a second determining unit, configured to determine a second time length in the second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is The average power consumption is a second average power consumption, the second average power consumption is smaller than the first average power consumption, and the second node cannot receive the second request.

Optionally, the second node further includes:

A third determining unit, configured to determine a first time period during which the second node is in the second working state based on the current time, the first time length, and the second time length;

a fourth determining unit, configured to determine a second time period during which the second node is in the second dormant state based on the current time, the first time length, and the second time length;

a first generating unit, configured to generate the second node-related information based on the first time period and the second time period;

A seventh sending unit, configured to send the second node related information to the resource gateway through the second communication.

Optionally, the second node further includes:

a first adjustment unit, configured to adjust the second working state to the second sleep state when the current time is within the second time period;

A second adjusting unit, configured to adjust the second sleep state to the second working state when the current time is within the first time period.

Optionally, the first determining unit determines the first time length based on the following formula:

Wherein, Ti is the first time length, Sh is the historical use case set, Chu is the historical time use case set, N is the total number of historical statistics, MaxTi is the historical maximum first time length, and MinTi is the historical minimum first time length.

Optionally, the second determining unit determines the second time length based on the following formula:

Wherein, Ts is the second time length, Sh is the historical usage set, Chu is the past historical time usage set, N is the total number of historical statistics, MaxTs is the historical maximum second time length, MinTs is the historical minimum second time length .

Description of drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings that need to be used in the description of the embodiments or the prior art. Obviously, the accompanying drawings in the following description These are some embodiments of the present invention. Those skilled in the art can also obtain other drawings based on these drawings without creative work.

FIG. 1 is a schematic structural diagram of a resource sharing system in an embodiment of the present application;

FIG. 2 is a flow chart of the resource classification method in Embodiment 1 of the present application;

FIG. 3 is a flow chart of the resource classification method in Embodiment 2 of the present application;

FIG. 4 is a flow chart of the resource classification method in Embodiment 3 of the present application;

FIG. 5 is a schematic structural diagram of the first node in Embodiment 4 of the present application;

FIG. 6 is a schematic structural diagram of the resource gateway in Embodiment 5 of the present application;

FIG. 7 is a schematic structural diagram of a second node in Embodiment 6 of the present application.

Detailed ways

The embodiment of the present application provides a resource sharing method to solve the technical problem in the prior art that it is difficult for electronic devices to achieve high compatibility due to the use of protocols under the UPnP AV framework to realize resource sharing between electronic devices.

The technical solution of the embodiment of the present application is to solve the above-mentioned technical problems, and the general idea is as follows:

A resource sharing method, comprising:

When the first node is in the first working state, the first node establishes a first communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol;

The first node sends a first request to the resource gateway based on the first communication, and the first request is used to obtain second node related information corresponding to the second node from the resource gateway;

The first node receives the first request response fed back by the resource gateway based on the first communication, and obtains the second node related information from the first request response;

The first node acquires the first resource from the second node based on the second node related information.

Because HTTP1.1 (HTTP-Hypertext transfer protocol1.1, Hypertext Transfer Protocol 1.1) is the standard web browsing protocol in the Internet (Internetwork, Internet), and most devices support the HTTP1.1 protocol. The HTTP1.1 protocol not only defines the transmission of text data, but also defines the transmission mode of streaming media data. From the point of view of device support and protocol support, HTTP1.1 is fully qualified for home network data transmission. From the perspective of physical equipment, the current smart equipment basically supports the HTTP1.1 protocol; from the perspective of protocol functions, the HTTP1.1 protocol can provide the basis for streaming media data transmission at home. It can be seen from the device support and protocol functions that using the HTTP1.1 protocol has the advantages of higher compatibility and lower implementation costs than using the protocol under the UPnP AV architecture.

It can be seen from the above technical solution that the first node establishes the first communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol, which effectively solves the problem of resource sharing between electronic devices due to the use of protocols under the UPnP AV framework in the prior art. , and the technical problem that it is difficult for electronic devices to achieve high compatibility, realizes that under the premise of ensuring the resource sharing among various devices, it is easier for each electronic device to obtain high compatibility, and realize the technical effect of lower cost .

In order to make the purpose, technical solution and advantages of an embodiment of the application clearer, the technical solution in the embodiment of the application will be clearly and completely described below in conjunction with the drawings in the embodiment of the application. Obviously, the described implementation The examples are some of the embodiments of the present application, not all of them. All other embodiments obtained by persons of ordinary skill in the art based on the embodiments in this application without creative efforts fall within the protection scope of the present invention.

First of all, the term "and/or" that appears in this article is just an association relationship that describes associated objects, which means that there can be three relationships, for example, A and/or B, which can mean: there is A alone, and A exists at the same time and B, there are three cases of B alone. In addition, the character "/" in this article generally indicates that the contextual objects are an "or" relationship.

Secondly, the term "first node" appearing in this article can be any intelligent electronic device, which is connected to the resource gateway by wire (or wirelessly). By communicating with the resource gateway, it can obtain The (first) resource provided by the second node.

To explain again, the term "second node" in this article can be any intelligent electronic device, which is connected to the resource gateway in a wired (or wireless) manner, and can provide the first node by communicating with the resource gateway. (first) resources.

To explain again, the term "resource gateway" in this article can be any intelligent electronic device, which is connected to multiple first nodes or second nodes through wired (or wireless) connection, and is used to control the first node and the second node, sharing the (first) resource of the second node with the first node.

To explain again, the term "first resource" or "resource" in this article refers to the resource owned by the second node. The resource can be data or files, or a specific service, such as: printing service, Large-screen display service, mail service, satellite positioning service, etc., as to the specific service of the specific service, this embodiment of the present application does not specifically limit it.

Embodiment one

This embodiment provides a resource sharing method. Before introducing the resource sharing method, the resource sharing system where the first node is located is introduced as follows:

As shown in Figure 1, a resource sharing system is shown in Figure 1, the system includes a first node, a resource gateway and a second node, and the first node and the second node are connected to the resource gateway in a wired (or wireless) manner . As a resource user, the first node obtains (first) resources provided by the second node through the resource gateway; as a resource owner, the second node provides (first) resources to the first node through the resource gateway. As a resource sharing manager, the resource gateway connects multiple (or one) first nodes and multiple (or one) second nodes to form a resource sharing system as shown in FIG. 1 .

As shown in Figure 2, standing on the side of the first node, this embodiment provides a resource sharing method, including:

Step 101: When the first node is in the first working state, the first node establishes a first communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol;

Step 102: The first node sends a first request to the resource gateway based on the first communication, and the first request is used to obtain relevant information of the second node corresponding to the second node from the resource gateway;

Step 103: Based on the first communication, the first node receives the first request response fed back by the resource gateway, and obtains relevant information of the second node from the first request response;

Step 104: The first node acquires the first resource from the second node based on the relevant information of the second node.

Because HTTP1.1 is the standard web browsing protocol in the Internet (Internetwork, Internet), and most devices support the HTTP1.1 protocol. The HTTP1.1 protocol not only defines the transmission of text data, but also defines the transmission mode of streaming media data. From the point of view of device support and protocol support, HTTP1.1 is fully qualified for home network data transmission. From the perspective of physical equipment, the current smart equipment basically supports the HTTP1.1 protocol; from the perspective of protocol functions, the HTTP1.1 protocol can provide the basis for streaming media data transmission at home. It can be seen from the device support and protocol functions that using the HTTP1.1 protocol has the advantages of higher compatibility and lower implementation costs than using the protocol under the UPnP AV architecture.

It can be seen from the above technical solution that the first node establishes the first communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol, which effectively solves the problem of resource sharing between electronic devices due to the use of protocols under the UPnP AV framework in the prior art. , and the technical problem that it is difficult for electronic devices to achieve high compatibility, realizes that under the premise of ensuring the resource sharing among various devices, it is easier for each electronic device to obtain high compatibility, and realize the technical effect of lower cost .

Optionally, the second node related information includes:

The first period of time that the second node is in the second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is the second average power consumption consumption, the second average power consumption is less than the first average power consumption. The specific time period between the first time period and the second time period is not specifically limited in this embodiment of the present application. It can be seen that when the second node is in the second sleep state, it is more energy efficient than when it is in the second working state.

Optionally, step 104 includes:

The first node acquires the first time period and/or the second time period from the first request response;

When the first node determines that the second node is currently in the second working state based on the first time period and/or the second time period, the first node sends to the resource gateway the first resource gateway for obtaining the first resource based on the first communication. Two requests;

Based on the first communication, the first node receives the second request response fed back by the resource gateway, and acquires the first resource from the second request response.

In the specific implementation process, when the first node confirms that the current time belongs to the first time period, it can determine that the second node is in the working state. At this time, the first node sends a second request to the resource gateway to realize from the second node Get the first resource.

For example, the first time period is from 9:05:00 to 9:10:00; the current time is 9:6:10, and the first node knows through judgment that the current time belongs to the first time period, then If it is determined that the second node is currently in a working state, then a second request is sent to the resource gateway to obtain the first resource from the second node through the resource gateway.

Optionally, step 104 includes:

The first node acquires the first time period and/or the second time period from the first request response;

When the first node determines that the second node is currently in the second dormant state based on the first time period and/or the second time period, the first node adjusts the first working state to the first dormant state; wherein, in the first When the node is in the first working state, the average power consumption of the first node is the third average power consumption; when the first node is in the first sleep state, the average power consumption of the first node is the fourth average power consumption, the fourth average power consumption The power consumption is less than the third average power consumption;

When the current time is the start time of the first time period, the first node adjusts the first sleep state to the first working state;

The first node sends a second request for acquiring the first resource to the resource gateway based on the first communication;

Based on the first communication, the first node receives the second request response fed back by the resource gateway, and acquires the first resource from the second request response.

For example, the second time period is from 9:00:00 to 9:4:59, the first time period is from 9:05:00 to 9:09:59; the current time is 9:02:10 Seconds, the first node judges that the current time belongs to the second time period, and then determines that the second node is currently in a dormant state. At this time, the first node also adjusts itself to a dormant state. When the first time period arrives, Then enter the working state from the dormant state, and send a second request for obtaining the first resource to the resource gateway, so as to obtain the first resource.

It can be seen from the above technical solution that when the first node confirms that the second node is currently in the dormant state, the first node also enters the dormant state, and when the second node enters the working state from the dormant state, the first node enters the working state again and sends resources The gateway sends the second request to obtain the first resource, thereby realizing the technical effect of saving the electric energy of the first node.

Embodiment two

As shown in Figure 3, standing on the resource gateway side, this embodiment provides a resource sharing method, including:

Step 201: When the resource gateway is in the working state, the resource gateway establishes a first communication with the first node based on the hypertext transfer protocol HTTP1.1 protocol;

Step 202: The resource gateway receives the first request sent by the first node based on the first communication, and the first request is used to obtain the second node-related information corresponding to the second node from the resource gateway;

Step 203: Based on the first communication, the resource gateway sends a first request response containing related information to the first node, so that the first node can obtain the first resource from the second node based on the related information of the second node.

Because HTTP1.1 (HTTP-Hypertext transfer protocol1.1, Hypertext Transfer Protocol 1.1) is the standard web browsing protocol in the Internet (Internetwork, Internet), and most devices support the HTTP1.1 protocol. The HTTP1.1 protocol not only defines the transmission of text data, but also defines the transmission mode of streaming media data. From the point of view of device support and protocol support, HTTP1.1 is fully qualified for home network data transmission. From the perspective of physical equipment, the current smart equipment basically supports the HTTP1.1 protocol; from the perspective of protocol functions, the HTTP1.1 protocol can provide the basis for streaming media data transmission at home. It can be seen from the device support and protocol functions that using the HTTP1.1 protocol has the advantages of higher compatibility and lower implementation costs than using the protocol under the UPnP AV architecture.

It can be seen from the above technical solution that the resource gateway establishes the first communication with the first node based on the hypertext transfer protocol HTTP1.1 protocol, which effectively solves the problem of resource sharing between electronic devices due to the use of protocols under the UPnP AV framework in the prior art. , and the technical problem that it is difficult for electronic devices to achieve high compatibility, realizes that under the premise of ensuring the resource sharing among various devices, it is easier for each electronic device to obtain high compatibility, and realize the technical effect of lower cost .

Optionally, before step 202, the method also includes:

The resource gateway establishes a second communication with the second node based on the Hypertext Transfer Protocol HTTP1.1 protocol;

Based on the second communication, the resource gateway receives the second node related information sent by the second node.

Optionally, the information about the second node includes:

The first period of time that the second node is in the second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is the second average power consumption consumption, the second average power consumption is less than the first average power consumption.

Optionally, after step 203, the method further includes:

The resource gateway receives a second request for acquiring the first resource sent by the first node based on the first communication;

The resource gateway sends the second request to the second node based on the second communication;

The resource gateway receives, based on the second communication, a second request response containing the first resource fed back by the second node;

The resource gateway sends the second request response to the first node based on the first communication.

It can be seen from the above technical solution that the communication between the first node and the second node is conveyed through the resource gateway, thereby realizing the technical effect of data monitoring of the first node and the second node through the resource gateway.

Optionally, the resource gateway always keeps working.

It can be seen from the above technical solution that since the resource gateway is always in the working state, it can respond in time to the first request sent by the first node at any time, thus ensuring the QoS (Quality of Service, quality of service) of the resource gateway. ).

Embodiment three

As shown in FIG. 4, standing on the side of the second node, this embodiment provides a resource sharing method, including:

Step 301: When the second node is in the second working state, the second node establishes a second communication with the resource gateway based on the Hypertext Transfer Protocol HTTP1.1 protocol;

Step 302: The second node sends related information of the second node to the resource gateway based on the second communication, so that the first node can obtain the related information of the second node from the resource gateway, and obtain the related information of the second node from the second node based on the related information of the second node. a resource.

Because HTTP1.1 (HTTP-Hypertext transfer protocol1.1, Hypertext Transfer Protocol 1.1) is the standard web browsing protocol in the Internet (Internetwork, Internet), and most devices support the HTTP1.1 protocol. The HTTP1.1 protocol not only defines the transmission of text data, but also defines the transmission mode of streaming media data. From the point of view of device support and protocol support, HTTP1.1 is fully qualified for home network data transmission. From the perspective of physical equipment, the current smart equipment basically supports the HTTP1.1 protocol; from the perspective of protocol functions, the HTTP1.1 protocol can provide the basis for streaming media data transmission at home. It can be seen from the device support and protocol functions that using the HTTP1.1 protocol has the advantages of higher compatibility and lower implementation costs than using the protocol under the UPnP AV architecture.

It can be seen from the above technical solution that the second node establishes the second communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol, which effectively solves the problem of resource sharing between electronic devices due to the use of protocols under the UPnP AV framework in the prior art. , and the technical problem that it is difficult for electronic devices to achieve high compatibility, realizes that under the premise of ensuring the resource sharing among various devices, it is easier for each electronic device to obtain high compatibility, and realize the technical effect of lower cost .

Optionally, after step 302, the method further includes:

The second node receives a second request sent by the resource gateway, and the second request is a request for the first node to obtain the first resource of the second node;

The second node sends a second request response including the first resource to the resource gateway based on the second communication.

Optionally, before step 302, the method further includes:

the second node determines a first length of time in the second operating state;

the second node determines a second length of time in the second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is the second average power consumption The second average power consumption is less than the first average power consumption, and the second node cannot receive the second request. For the first time length and the second time length, there is no specific limitation here.

Optionally, before step 302, the method further includes:

The second node determines a first time period during which the second node is in a second working state based on the current time, the first time length, and the second time length, and the first time period is after the current time;

The second node determines a second time period during which the second node is in the second dormant state based on the current time, the first time length, and the second time length, and the second time period is located after the current time and does not overlap with the first time period;

The second node generates second node related information based on the first time period and the second time period;

The second node sends the related information of the second node to the resource gateway through the second communication.

Example: After confirming that the first time period is 5 minutes, the second time period is 4 minutes, and the current time is 9:00:00, the second time period can be determined as: 9:00:00 to 9:4 minutes and 59 seconds; the first time period can be determined as: 9:05:00 to 9:08:59.

Optionally, the method also includes:

When the current time is within the second time period, the second node adjusts the second working state to the second sleep state;

When the current time is within the first time period, the second node adjusts the second sleep state to the second working state.

It can be known from the above technical solution that the second node can be in the working state during the first time period and be in the dormant state during the second time period. Since the second node has an intermittent working mode, compared with a continuous working mode, the second node having an intermittent working mode is more energy-efficient. Therefore, the technical effect of saving the electric energy of the second node is realized.

Optionally, the second node determines the first time length based on formula (1):

Among them, Ti is the first time length, Sh is the set of historical usage, Chu is the set of historical usage, N is the total number of historical statistics, MaxTi is the largest first time length in history, and MinTi is the smallest first time length in history.

Optionally, the second node determines the second time length based on formula (2):

Among them, Ts is the second time length, Sh is the set of historical usage, Chu is the set of past historical moments, N is the total number of historical statistics, MaxTs is the largest second time length in history, and MinTs is the smallest second time length in history.

Here, formulas (1) and (2) are explained: because in people's daily life, the equipment is not always in use, and it is idle for a lot of time, using the small sample statistical method in statistical learning theory, By sampling service requests and counting the frequency of requests within a fixed time period, that is, the time of collecting device activities, the corresponding relationship between the frequent system of its activities and time can be obtained, and a two-dimensional function can be used for regression analysis to obtain a Approximate solution function, through this function, you can roughly predict when the setting should be in the active state and when it should be in the idle state. After judging the state, you can set the duration of Ts and Ti. In different states, Ts and Ti are the same Fixed value, Ts will be smaller and Ti will be larger in active state, Ts will be larger and Ti will be smaller in idle state. Considering that the prediction results are inaccurate due to the unexpected state, while using the function fitting, it will also monitor the activities in a short period of time. If it does not match the predicted state, modify the device state in time to improve the service quality.

Embodiment four

As shown in Figure 5, this embodiment provides a first node, including:

The first establishment unit 401 is configured to establish a first communication with the resource gateway based on the Hypertext Transfer Protocol HTTP1.1 protocol when the first node is in the first working state;

The first sending unit 402 is configured to send a first request to the resource gateway based on the first communication, where the first request is used to obtain from the resource gateway related information about the second node corresponding to the second node;

The first receiving unit 403 is configured to receive the first request response fed back by the resource gateway based on the first communication, and acquire second node related information from the first request response;

The first obtaining unit 404 is configured to obtain the first resource from the second node based on the relevant information of the second node.

Optionally, the second node related information includes:

The first period of time that the second node is in the second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is the second average power consumption consumption, the second average power consumption is less than the first average power consumption.

Optionally, the first acquiring unit 404 includes:

A first obtaining module, configured to obtain the first time period and/or the second time period from the first request response;

The first sending module is configured to, when it is determined based on the first time period and/or the second time period that the second node is currently in the second working state, based on the first communication, send the information for acquiring the first resource to the resource gateway second request;

The first receiving module is configured to receive the second request response fed back by the resource gateway based on the first communication, and obtain the first resource from the second request response.

Optionally, the first acquiring unit 404 includes:

A second obtaining module, configured to obtain the first time period and/or the second time period from the first request response;

The first adjustment module is configured to adjust the first working state to the first dormant state when it is determined that the second node is currently in the second dormant state based on the first time period and/or the second time period; wherein, at the When a node is in the first working state, the average power consumption of the first node is the third average power consumption; when the first node is in the first sleep state, the average power consumption of the first node is the fourth average power consumption, the fourth The average power consumption is less than the third average power consumption;

The second adjustment module is configured to adjust the first sleep state to the first working state when the current time is the start time of the first time period;

The second sending module is configured to send a second request for acquiring the first resource to the resource gateway based on the first communication;

The second receiving module is configured to receive the second request response fed back by the resource gateway based on the first communication, and obtain the first resource from the second request response.

Embodiment five

As shown in Figure 6, this embodiment provides a resource gateway, including:

The second establishment unit 501 is configured to establish a first communication with the first node based on the hypertext transfer protocol HTTP1.1 protocol when the resource gateway is in the working state;

The second receiving unit 502 is configured to receive a first request sent by the first node based on the first communication, and the first request is used to obtain second node related information corresponding to the second node from the resource gateway;

The second sending unit 503 is configured to send to the first node a first request response containing information about the second node based on the first communication, so that the first node can obtain the first resource from the second node based on the information about the second node .

Optionally, the resource gateway also includes:

A third establishing unit, configured to establish a second communication with the second node based on the Hypertext Transfer Protocol HTTP1.1 protocol before the resource gateway receives the first request sent by the first node based on the first communication;

The third receiving unit is configured to receive the second node related information sent by the second node based on the second communication.

Optionally, the information about the second node includes:

The first period of time that the second node is in the second working state; and/or

a second period of time during which the second node is in a second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is the second average power consumption consumption, the second average power consumption is less than the first average power consumption.

Optionally, the resource gateway also includes:

The fourth receiving unit is configured to, after the resource gateway sends the first request response containing the relevant information of the second node to the first node based on the first communication, based on the first communication, receive the request for obtaining the first resource sent by the first node. the second request of

a third sending unit, configured to send the second request to the second node based on the second communication;

A fifth receiving unit, configured to receive, based on the second communication, a second request response that includes the first resource fed back by the second node;

A fourth sending unit, configured to send the second request response to the first node based on the first communication.

Optionally, the resource gateway further includes:

Hold unit, used to keep working status all the time.

Embodiment six

As shown in FIG. 7, this embodiment provides a second node, including:

The fourth establishment unit 601 is configured to establish a second communication with the resource gateway based on the hypertext transfer protocol HTTP1.1 protocol when the second node is in the second working state;

The fifth sending unit 602 is configured to send related information of the second node to the resource gateway based on the second communication, so that the first node can obtain the related information of the second node from the resource gateway, and obtain the related information of the second node from the second node based on the related information of the second node. Get the first resource.

Optionally, the second node also includes:

The sixth receiving unit is configured to receive the second request sent by the resource gateway after sending the second node-related information to the resource gateway based on the second communication, where the second request is a request for the first node to obtain the first resource of the second node ;

A sixth sending unit, configured to send a second request response containing the first resource to the resource gateway based on the second communication.

Optionally, the second node also includes:

The first determining unit is configured to determine the first length of time in the second working state before the second node sends related information of the second node to the resource gateway based on the second communication;

a second determining unit, configured to determine a second time length in the second dormant state;

Wherein, when the second node is in the second working state, the average power consumption of the second node is the first average power consumption; when the second node is in the second sleep state, the average power consumption of the second node is the second average power consumption The second average power consumption is less than the first average power consumption, and the second node cannot receive the second request.

Optionally, the second node also includes:

A third determining unit, configured to determine a first time period during which the second node is in the second working state based on the current time, the first time length, and the second time length;

A fourth determining unit, configured to determine a second time period during which the second node is in the second dormant state based on the current time, the first time length, and the second time length;

A first generating unit, configured to generate second node related information based on the first time period and the second time period;

The seventh sending unit is configured to send the related information of the second node to the resource gateway through the second communication.

Optionally, the second node also includes:

The first adjustment unit is configured to adjust the second working state to the second sleep state when the current time is within the second time period;

The second adjusting unit is configured to adjust the second sleep state to the second working state when the current time is within the first time period.

Optionally, the first determining unit determines the first time length based on the following formula:

Among them, Ti is the first time length, Sh is the set of historical usage, Chu is the set of historical usage, N is the total number of historical statistics, MaxTi is the largest first time length in history, and MinTi is the smallest first time length in history.

Optionally, the second determining unit determines the second time length based on the following formula:

Wherein, Ts is the second time length, Sh is the historical use case set, Chu is the past historical time use case set, N is the total number of historical statistics, MaxTs is the historical maximum second time length, and MinTs is the historical minimum second time length.

Those skilled in the art should understand that the embodiments of the present invention may be provided as methods, systems, or computer program products. Accordingly, the present invention can take the form of an entirely hardware embodiment, an entirely software embodiment, or an embodiment combining software and hardware aspects. Furthermore, the present invention may take the form of a computer program product embodied on one or more computer-usable storage media (including but not limited to disk storage, CD-ROM, optical storage, etc.) having computer-usable program code embodied therein.

The present invention is described with reference to flowchart illustrations and/or block diagrams of methods, apparatus (systems), and computer program products according to embodiments of the invention. It should be understood that each procedure and/or block in the flowchart and/or block diagram, and combinations of procedures and/or blocks in the flowchart and/or block diagram can be realized by computer program instructions. These computer program instructions may be provided to a general purpose computer, special purpose computer, embedded processor, or processor of other programmable data processing equipment to produce a machine such that the instructions executed by the processor of the computer or other programmable data processing equipment produce a Means for realizing the functions specified in one or more steps of the flowchart and/or one or more blocks of the block diagram.

These computer program instructions may also be stored in a computer-readable memory capable of directing a computer or other programmable data processing apparatus to operate in a specific manner, such that the instructions stored in the computer-readable memory produce an article of manufacture comprising instruction means, the instructions The device realizes the function specified in one or more procedures of the flowchart and/or one or more blocks of the block diagram.

These computer program instructions can also be loaded onto a computer or other programmable data processing device, causing a series of operational steps to be performed on the computer or other programmable device to produce a computer-implemented process, thereby The instructions provide steps for implementing the functions specified in the flow chart flow or flows and/or block diagram block or blocks.

While preferred embodiments of the invention have been described, additional changes and modifications to these embodiments can be made by those skilled in the art once the basic inventive concept is appreciated. Therefore, it is intended that the appended claims be construed to cover the preferred embodiment as well as all changes and modifications which fall within the scope of the invention.

Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalent technologies, the present invention also intends to include these modifications and variations.

Claims (26)

1. a kind of resource sharing method characterized by comprising

When first node is in the first working condition, the first node be based on hypertext transfer protocol HTTP1.1 agreement with Resource gateway establishes the first communication；

The first node is based on first communication, sends the first request to the resource gateway, first request is used for The corresponding second node relevant information of second node is obtained to the resource gateway；

The first node is based on first communication, receives the first request response of resource gateway feedback, and from described The second node relevant information is obtained in first request response；

The first node is based on the second node relevant information, obtains first resource from the second node；

The second node relevant information is in first time period and/or the institute of the second working condition including the second node State the second time period that second node is in the second dormant state；

Wherein, when the second node is in second working condition, the average power consumption of the second node is first flat Equal power consumption；When the second node is in second dormant state, the average power consumption of the second node is second average Power consumption, second average power consumption are less than first average power consumption.

2. the method as described in claim 1, which is characterized in that the first node is based on the second node relevant information, First resource is obtained from the second node, comprising:

The first node obtains the first time period, and/or the second time period from the first request response；

It is based on the first time period, and/or the second time period in the first node, determines that the second node is current When in second working condition, the first node is based on first communication, sends to the resource gateway for obtaining The second of the first resource is taken to request；

The first node is based on first communication, receives the second request response of resource gateway feedback, and from described The first resource is obtained in second request response.

3. the method as described in claim 1, which is characterized in that the first node is based on the second node relevant information, The first resource is obtained to the second node, comprising:

The first node obtains the first time period, and/or the second time period from the first request response；

It is based on the first time period, and/or the second time period in the first node, determines that the second node is current When in second dormant state, first working condition is adjusted to the first dormant state by the first node；Wherein, When the first node is in first working condition, the average power consumption of the first node is third average power consumption；? When the first node is in first dormant state, the average power consumption of the first node is the 4th average power consumption, described 4th average small power consumption is in the third average power consumption；

When current time is the initial time of the first time period, the first node adjusts first dormant state For first working condition；

The first node is based on first communication, sends second for obtaining the first resource to the resource gateway Request；

The first node is based on first communication, receives the second request response of resource gateway feedback, and from described The first resource is obtained in second request response.

4. a kind of resource sharing method characterized by comprising

When resource gateway is in running order, the resource gateway is based on hypertext transfer protocol HTTP1.1 agreement and first Node establishes the first communication；

The resource gateway is based on first communication, receives the first request that the first node is sent, first request For obtaining the corresponding second node relevant information of second node to the resource gateway；

The resource gateway is based on first communication, sends to the first node comprising the second node relevant information First request response, so that the first node can obtain the from the second node based on the second node relevant information One resource；

The second node relevant information is in first time period and/or the institute of the second working condition including the second node State the second time period that second node is in the second dormant state；

Wherein, when the second node is in second working condition, the average power consumption of the second node is first flat Equal power consumption；When the second node is in second dormant state, the average power consumption of the second node is second average Power consumption, second average power consumption are less than first average power consumption.

5. method as claimed in claim 4, which is characterized in that be based on first communication in the resource gateway, receive institute Before the first request for stating first node transmission, the method also includes:

The resource gateway is based on the hypertext transfer protocol HTTP1.1 agreement and the second node establishes the second communication；

The resource gateway is based on second communication, receives the second node relevant information that the second node is sent.

6. method as claimed in claim 5, which is characterized in that first communication is based in the resource gateway, to described After first node sends the first request response comprising the second node relevant information, the method also includes:

The resource gateway is based on first communication, receive that the first node sends for obtaining the first resource Second request；

The resource gateway is based on second communication, and second request is sent to the second node；

The resource gateway is based on second communication, receives second comprising the first resource of the second node feedback Request response；

The resource gateway is based on first communication, and the second request response is sent to the first node.

7. the method as described in claim 4~6 is any, which is characterized in that the resource gateway remains working condition.

8. a kind of resource sharing method characterized by comprising

When second node is in the second working condition, the second node be based on hypertext transfer protocol HTTP1.1 agreement with Resource gateway establishes the second communication；

The second node is based on second communication, second node relevant information is sent to the resource gateway, so that first Node can obtain the second node relevant information from the resource gateway, and be based on the second node relevant information from institute It states second node and obtains first resource；

Second communication, before sending second node relevant information to the resource gateway, institute are based in the second node It states second node and determines the first time length in second working condition and the second time in the second dormant state Length；

Wherein, when the second node is in second working condition, the average power consumption of the second node is first flat Equal power consumption；When the second node is in second dormant state, the average power consumption of the second node is second average Power consumption, second average power consumption is less than first average power consumption, and the second node can not receive the second request, In, second request is the request for the first resource that the first node obtains the second node.

9. method according to claim 8, which is characterized in that second communication is based in the second node, to described After resource gateway sends second node relevant information, the method also includes:

The second node receives second request that the resource gateway is sent；

The second node is based on second communication, and the second request comprising the first resource is sent to the resource gateway Response.

10. method according to claim 8, which is characterized in that the method also includes:

The second node is based on current time, the first time length and second time span, determines described second Node is in the first time period of second working condition；

The second node is based on current time, the first time length and second time span, determines described second Node is in the second time period of second dormant state；

The second node is based on the first time period and the second time period, generates the second node relevant information；

The second node is communicated by described second, and the second node relevant information is sent to the resource gateway.

11. method as claimed in claim 10, which is characterized in that the method also includes:

When current time is in the second time period, it is described that the second node, which adjusts second working condition, Two dormant states；

When current time is in the first time period, it is described that the second node, which adjusts second dormant state, Two working conditions.

12. the method as described in claim 8~11 is any, which is characterized in that the second node is based on following formula, determines The first time length:

Wherein, Ti is the first time length, and Sh is history service condition set, and Chu is historical juncture service condition set, N is historical statistics sum, and MaxTi is the maximum first time length of history, and MinTi is the minimum first time length of history.

13. the method as described in claim 8~11 is any, which is characterized in that the second node is based on following formula, determines Second time span:

Wherein, Ts is second time span, and Sh is history service condition set, and Chu is past historical juncture service condition Set, N are historical statistics sum, and MaxTs is maximum second time span of history, and MinTs is minimum second time span of history.

14. a kind of first node characterized by comprising

First establishing unit, for being based on hypertext transfer protocol when the first node is in the first working condition HTTP1.1 agreement and resource gateway establish the first communication；

First transmission unit, for sending the first request, first request to the resource gateway based on first communication For obtaining the corresponding second node relevant information of second node to the resource gateway；

First receiving unit, the first request for being used to be received the resource gateway feedback based on first communication are responded, and from The second node relevant information is obtained in the first request response；

First acquisition unit obtains first resource from the second node for being based on the second node relevant information；

The second node relevant information is in first time period and/or the institute of the second working condition including the second node State the second time period that second node is in the second dormant state；

Wherein, when the second node is in second working condition, the average power consumption of the second node is first flat Equal power consumption；When the second node is in second dormant state, the average power consumption of the second node is second average Power consumption, second average power consumption are less than first average power consumption.

15. first node as claimed in claim 14, which is characterized in that the first acquisition unit, comprising:

First obtains module, for obtaining the first time period, and/or second time from the first request response Section；

First sending module determines second section for being based on the first time period, and/or the second time period When point is currently at second working condition, based on first communication, sent to the resource gateway described for obtaining Second request of first resource；

First receiving module, the second request for being used to be received the resource gateway feedback based on first communication are responded, and from The first resource is obtained in the second request response.

16. first node as claimed in claim 14, which is characterized in that the first acquisition unit, comprising:

Second obtains module, for obtaining the first time period, and/or second time from the first request response Section；

The first adjustment module determines second section for being based on the first time period, and/or the second time period When point is currently at second dormant state, first working condition is adjusted to the first dormant state；Wherein, described When first node is in first working condition, the average power consumption of the first node is third average power consumption；Described When one node is in first dormant state, the average power consumption of the first node is the 4th average power consumption, described Siping City Equal power consumption is less than the third average power consumption；

Second adjustment module, for current time be the first time period initial time when, by the first suspend mode shape State is adjusted to first working condition；

Second sending module, for being sent for obtaining the first resource to the resource gateway based on first communication Second request；

Second receiving module, the second request for being used to be received the resource gateway feedback based on first communication are responded, and from The first resource is obtained in the second request response.

17. a kind of resource gateway characterized by comprising

Second establishes unit, for being assisted based on hypertext transfer protocol HTTP1.1 when the resource gateway is in running order View establishes the first communication with first node；

Second receiving unit, for receiving the first node is sent first and requesting based on first communication, described first Request is for obtaining the corresponding second node relevant information of second node to the resource gateway；

Second transmission unit, for being sent to the first node related comprising the second node based on first communication First request response of information, so that the first node can be based on the second node relevant information from the second node Obtain first resource；

The second node relevant information is in first time period and/or the institute of the second working condition including the second node State the second time period that second node is in the second dormant state；

Wherein, when the second node is in second working condition, the average power consumption of the second node is first flat Equal power consumption；When the second node is in second dormant state, the average power consumption of the second node is second average Power consumption, second average power consumption are less than first average power consumption.

18. resource gateway as claimed in claim 17, which is characterized in that the resource gateway further include:

Third establishes unit, for being based on first communication in the resource gateway, receive that the first node sends the Before one request, the second communication is established based on the hypertext transfer protocol HTTP1.1 agreement and the second node；

Third receiving unit, for it is related to receive the second node that the second node is sent based on second communication Information.

19. resource gateway as claimed in claim 17, which is characterized in that the resource gateway further include:

4th receiving unit, for being based on first communication in the resource gateway, sending to the first node includes institute After the first request response for stating second node relevant information, based on first communication, receive what the first node was sent For obtaining the second request of the first resource；

Third transmission unit, for based on the second communication, second request to be sent to the second node；

5th receiving unit, for based on second communication, receive the second node feedback to include the first resource Second request response；

4th transmission unit, for based on first communication, the second request response to be sent to the first node.

20. the resource gateway as described in claim 17~19 is any, which is characterized in that the resource gateway further include:

Holding unit, for remaining working condition.

21. a kind of second node characterized by comprising

4th establishes unit, for being based on hypertext transfer protocol when the second node is in the second working condition HTTP1.1 agreement and resource gateway establish the second communication；

5th transmission unit, for sending second node relevant information to the resource gateway based on second communication, so that First node can obtain the second node relevant information from the resource gateway, and be based on the second node relevant information First resource is obtained from the second node；

The second node further includes the first determination unit and the second determination unit；

First determination unit sends the to the resource gateway for being based on second communication in the second node Before two node related informations, the first time length for being in second working condition is determined；

Second determination unit, for determining the second time span for being in the second dormant state；

Wherein, when second node is in second working condition, the average power consumption of the second node is the first average function Consumption；When second node is in second dormant state, the average power consumption of the second node is the second average power consumption, described Second average power consumption is less than first average power consumption, and the second node can not receive the second request, wherein described second Request is the request for the first resource that the first node obtains the second node.

22. second node as claimed in claim 21, which is characterized in that the second node further include:

6th receiving unit, for, based on second communication, sending second node correlation letter to the resource gateway described After breath, second request that the resource gateway is sent is received；

6th transmission unit, for sending the comprising the first resource to the resource gateway based on second communication Two request responses.

23. second node as claimed in claim 21, which is characterized in that the second node further include:

Third determination unit, described in determining based on current time, the first time length and second time span Second node is in the first time period of second working condition；

4th determination unit, described in determining based on current time, the first time length and second time span Second node is in the second time period of second dormant state；

It is related to generate the second node for being based on the first time period and the second time period for first generation unit Information；

The second node relevant information is sent to the resource network for communicating by described second by the 7th transmission unit It closes.

24. second node as claimed in claim 21, which is characterized in that the second node further include:

The first adjustment unit, for when current time is in second time period, it to be described for adjusting second working condition Second dormant state；

Second adjustment unit, for when current time is in first time period, it to be described for adjusting second dormant state Second working condition.

25. the second node as described in claim 21~24 is any, which is characterized in that first determination unit is based on as follows Formula determines the first time length:

Wherein, Ti is the first time length, and Sh is history service condition set, and Chu is historical juncture service condition set, N is historical statistics sum, and MaxTi is the maximum first time length of history, and MinTi is the minimum first time length of history.

26. the second node as described in claim 21~24 is any, which is characterized in that second determination unit is based on as follows Formula determines second time span:

Wherein, Ts is second time span, and Sh is history service condition set, and Chu is past historical juncture service condition Set, N are historical statistics sum, and MaxTs is maximum second time span of history, and MinTs is minimum second time span of history.