34results about How to "Easy and fast deployment" patented technology

A method for configuring software includes communicating a business configuration interface to a user and receiving a selection of a business configuration from the user. In addition, the method includes communicating a business topology interface to the user that includes one or more functional elements associated with the selected business configuration. The method also includes receiving a selection of a functional element, which includes one or more business functions, from the user. In addition the method includes communicating a functional element interface to the user, the functional element interface including one or more business functions associated with the selected functional element, and receiving a selection of a business function from the user, the business function having one or more associated business processes. Furthermore, the method includes communicating one or more business process interfaces to the user and receiving software configuration information from the user via the one or more business process interfaces.

A method for deploying software includes selecting one or more pre-defined business models applicable to a business entity in which the software is being deployed. The business models are associated with particular business functions. The method further includes creating an entity model using the one or more selected business models. In addition, the method includes gathering information from the entity relevant to the selected business models and inputting the information into the entity model. The method further includes specifying functional requirements of the entity using a business modeling tool and configuring the entity model using the specified functional requirements. Moreover, the method includes automatically generating one or more specification files according to the configured entity model. The specification files identify the data to be input to the software after the software is deployed.

A washcloth (1) comprising at least three cloth parts (I-IV), which cloth parts are mutually connected for forming an internal hand receiving space (6), and wherein each cloth part provides an external work surface (I′-IV′).

A process for manufacturing pipes using thermoplastic pipe and “tape” (continuous fiber, fully wetted in a similar thermoplastic as the pipe) that embeds the fibers into pipe surface. In one embodiment, an ambient temperature tape is wrapped around the cold pipe in a dry environment. An external heat source is used to heat up the pipe causing the thermoplastic to melt and the pipe to expand due to thermal expansion. Since the fibers have less stretch than the thermal expansion of the pipe the fibers will be embedded into the molten layer of the pipe, creating a permanent bond between the fibers and the pipe. A protective film is applied to the pipe. Portions of the tape and film are scraped from the surface of the pipe creating an area where the end of the pipe is coupled to another pipe using an electronic fusion coupler.

A process for joining thin walled non-metallic pipe using a tubular inner coupler. The inner coupler may be inserted into the pipe and bonded to the pipe. The inner coupler may include a shoulder to form an attachment point for clamping inner coupled pipe joints together. The pipe joint may be reinforced using a continuous fiber tape. The bonding may include electrofusion, adhesives, heating, and damping, of the inner coupler to the pipe.

A method of deploying cloud services quickly is to make a near-end apparatus be connected to a cloud virtual machine of a cloud server, establish a cloud agent module in the cloud virtual machine, continuously synchronize local data from the near-end apparatus to the cloud virtual machine and converse the local data into cloud structured data, upload local data flow task from the near-end apparatus to the cloud virtual machine for configuring cloud task program. A cloud execution result based on the cloud task program and the cloud structured data corresponds to a local execution result based on the local data and the local data flow task.

The disclosure relates to an antenna system [1] comprising a mast [7], in turn comprising a base section [2b] and an extendable section [a], and an antenna [6]. The antenna [6] is arranged to be rotatable and the extendable section [2a] comprises a plurality of telescopic sections [8] whereby the extendable section [2a] may adopt a retracted configuration and a deployed configuration. The mast [7] is foldable in relation to a platform [5] in a vertical plane [PLxy] essentially parallel to the longitudinal direction of the extendable section [LD-es] and to the longitudinal direction of the base section [LD-bs] by means of a first pivot joint [9]. According to the disclosure the antenna system [1] may be arranged to the platform [5], wherein the platform [5] may be in form of a vehicle [5-v], whereby an antenna arrangement [101] is formed. The disclosure further relates to methods of avoiding oscillations for an antenna system [1] and/or an antenna arrangement [101], and to a method of undeploying an antenna arrangement [101].

The invention discloses a 720-degree panoramic outdoor intelligent integrated monitoring terminal. The 720-degree panoramic outdoor intelligent integrated monitoring terminal is applied to monitoring a power transmission line. The 720-degree panoramic outdoor intelligent integrated monitoring terminal comprises a fixed frame, a monitoring terminal body, a solar cell panel and a PCB, wherein the monitoring terminal body, the solar cell panel and the PCB are installed on the fixed frame; the solar cell panel supplies power to the monitoring terminal body and the PCB; a processor connected with the monitoring terminal body is arranged on the PCB; the monitoring terminal body comprises a spherical shell, six cameras and a battery pack, wherein the six cameras are arranged in the spherical shell and vertically arranged in north, south, east and west azimuthal angles; the battery pack supplies power to the cameras; and the battery pack is connected with the solar cell panel. The monitoring terminal body is provided with the cameras vertically in north, south, east and west azimuthal angles; therefore, whether climbing of a person below a pole tower or landing of flight equipment, such as an unmanned aerial vehicle, from the top of the pole tower can be clearly observed; a dead-angle-free observation angle can be realized; the 720-degree panoramic outdoor intelligent integrated monitoring terminal can be completely adaptive to various outdoor environments; and long-time working can be kept.

The invention discloses a psychological assessment data acquisition and intervention method and system based on visual cognition attention, and relates to the technical field of data acquisition. Comprising the following steps: controlling a client to obtain information of a testee, and sending an instruction to a server; the server receives the evaluation starting instruction and sends the evaluation starting instruction to the host client; the host client receives the evaluation starting instruction, completes evaluation to obtain evaluation data, and transmits the evaluation data to the server in a data stream form; the cloud algorithm server analyzes the evaluation data to obtain an analysis result; the server returns the analysis result to the control client, and the control client judges whether to send an intervention instruction or not according to the analysis result; and the data server stores and manages the analysis result. According to the method, the algorithm operation efficiency and safety can be improved; transmission interruption of normal form evaluation image data flow and text data flow caused by network flow fluctuation and server faults is avoided; eye movement gazing track data are objectively, efficiently and accurately collected.

The invention discloses a method and equipment for simulating rain drops of window glass and wiping effect of a windscreen wiper in rainy days, and the method comprises the steps: building a three-dimensional space model of a vehicle windscreen, putting the model into a uv coordinate system, cutting the model into a plurality of equant grids, and taking each grid as a coordinate system for drawing water drops; fitting a noise function, a pull-up function and a motion curve function, calculating a pull-up value of an X axis and a motion value of a y axis for a water drop, calculating a water drop coordinate and a pixel deviation value, calculating a trailing water drop coordinate and a pixel deviation value, and superposing the coordinates and the pixel deviation value into a pixel deviation value; performing offset sampling on the original image to obtain a water drop sliding image, and performing fuzzy algorithm processing to obtain a simulated water vapor effect image; calculating two radian distance fields, and superposing the two radian distance fields into one radian distance field; and mixing the simulated water vapor effect image and the original image through a radian distance field to obtain a final simulated effect image. The simulation reality sense is greatly improved, simulation is easily and quickly deployed, the effect is better, and the efficiency is better.

The invention relates to a portable multi-machine multi-point traction turnout synchronism detection system. The system comprises a front-end sensor, a node unit, a base station and an upper computer,the front-end sensor is arranged on a turnout traction point and is in communication connection with the node unit, and the node unit is connected with the upper computer through the base station. Compared with the prior art, the system has the advantages of being portable, convenient to use on site and the like.

An imaging system gantry and patient drape includes a gantry first outer sidewall covering portion biased into a deployed shape and collapsible, a gantry inner wall covering portion extending inward of the gantry first outer sidewall covering portion, and a patient envelope portion. One or more retainers secure a portion of the drape to the gantry. In some versions, one or more drape portions rotate with the gantry and one or more other drape portions do not rotate with the gantry.

An imaging system drape includes leaves for easier deployment. A gantry first outer side wall covering portion includes a top leaf and one or more adjacent leaves on opposite sides of the top leaf. There is a stay for each leaf, a gantry inner wall covering portion extending from the gantry first outer side wall covering portion, and one or more drape portions attached to the gantry inner wall covering portion and securable to a gantry second outer side wall.