41results about How to "Design personalization" patented technology

The embodiment of the invention provides a paper diaper functional layer self-adaptive configuration method and system based on purposes. The method comprises the steps of receiving personal information data sent by a current user; generating a corresponding personal feature vector according to the personal information data; matching the personal feature vector with a vector model in a preset personal feature vector group, and determining a configuration scheme of the current user; and configuring a functional layer of the paper diaper for the current user according to the configuration scheme. According to the diaper functional layer self-adaptive configuration method based on the purposes, the diaper with the functional layer can be configured according to the personal requirements of the user, the personalized design of the user is achieved, the personal requirements of the user are met, and the user experience is improved.

The invention provides an intelligent plant maintenance system, which comprises a user terminal and a software system, wherein the software system has a user account number which is associated to theuser terminal; and the user terminal is used for establishing a spatial model in the software system and generating a layout scheme of virtual plants in the spatial model. According to the plant maintenance system provided by the invention, individual design of users before planting can be satisfied.

The method for parametric modeling of the ascending aorta, aortic arch and its three branches according to the present invention belongs to the field of biological 3D printing modeling, and relates to a parametric modeling method for the ascending aorta, aortic arch and its three branches based on anatomical features . This method first obtains CT medical images of patients, imports the data into image analysis software, and adjusts various display parameters. The built-in thresholding function and region growing function of the application software, combined with manual correction, draws the mask of the patient's target blood vessel segment and surrounding constrained organs and tissues; segments the surrounding organs and tissues of the patient's artery, including the sternum, thoracic spine, superior vena cava, trachea, and Pulmonary artery trunk, generate a 3D model of the target vessel segment and surrounding constrained organs and tissues. This method improves the applicability of the implanted aorta and the life of the implant, and can adjust the geometric model of the target blood vessel segment by adjusting multiple sets of specific parameters, so that the blood flow design is personalized, with a high degree of freedom and a high degree of restoration. high.

The invention provides a watch. The watch comprises a watch strap component, a watch body and a movement component mounted in the watch body. The water further comprises a jacket and an arbor, wherein the jacket is used for coating the water body and is fixedly connected with the water body via two screws, the arbor is arranged on the water body and used for regulating time and controlling rotation of the jacket of the watch, and the arbor penetrates through the jacket and is used for locking an upper jacket piece and a lower jacket piece of the jacket. The watch strap component is mounted attwo ends of the watch body. The jacket is provided with a screw revolving shaft at the position of nine o'clock. When the arbor is rotated outwards from the center, the upper jacket piece and the lower jacket piece are separated from a groove of the arbor, and then the upper jacket piece can rotate around the screw revolving shaft. The upper jacket piece can be overturned by a certain angle relative to a watch strap, the jacket can be detached when required, the watch can be worn on a hand, and two wearing modes of the watch are realized.

A design method for a gasification process, comprising the steps of: determining raw material characteristics and design requirements, the design requirements being the range of design target values; according to the raw material characteristics and design requirements, giving assumed values ​​of design variables, using the The initial value of the design variable is obtained by calculating the above assumed value and empirical formula; according to the obtained initial value of the design variable, the optimal range of the design variable of the reverse design is determined; the individuals in the obtained initial population are sorted by the non-dominated fuzzy sorting method; The pedigree clustering method with fuzzy target weight coefficients clusters all non-dominated individuals, and finally uses the non-dominated fuzzy sorting method to sort different classes to obtain the design variables and design target intervals that best meet the design requirements. Reverse design has broader requirements for design goals, more comprehensive design variables, clearer direction in the design process, better design results in line with design requirements, greatly reduced workload, and does not require designers to have rich experience.

The invention provides a method for preparing a complexly shaped biomedical porous titanium molybdenum alloy implant body and belongs to the technical field of biomedical porous metallic material preparation. The method comprises the following steps of: taking a mixture of titanium and molybdenum metallic element powder and organic polymer powder as raw materials, and then preparing the biomedical porous titanium molybdenum alloy implant body by adopting the processes, such as three-dimensional modeling, selective laser-firing rapid forming, thermal de-greasing, vacuum sintering, and the like. The processing steps are simple, the period is short, the use ratio of materials is high, the cost is low, any complexly shaped porous titanium alloy implant body can be conveniently manufactured, and the method has efficiency and economic advantages in individual design and rapid manufacturing of the implant body. A titanium molybdenum alloy material prepared by using the method has the advantages that pore space is uniform, adjustment scopes of porosity, aperture ratio and aperture are wide, elasticity modulus and compression strength are in close proximity to natural bone, and the demand on biomechanical compatibility required by a biomedical material is met.