Abstract: A method for controlling an operating condition of an electric power grid having an intermittent power supply coupled thereto, comprising: using an energy variability controller, controlling variability of a delivered power output of the intermittent power supply to the grid by: monitoring an actual environmental value for a location proximate the intermittent power supply, an available power output of the intermittent power supply being dependent on the actual environmental value; when the actual environmental value is increasing and hence the available power output is increasing, increasing the delivered power output according to a predetermined rate of increase; monitoring a forecast environmental value for the location; when the forecast environmental value is decreasing, decreasing the delivered power output according to a predetermined rate of decrease; and, limiting the delivered power output to below a predetermined threshold. The electric power grid may be or may include an electric power microgrid.

Abstract: An electrical connector and a method of manufacturing the same are provided. A connecting member is embedded in an insulating body between a side edge of the insulating body and an outer side of a first terminal or a last terminal in a first terminal group, and a gap exists between the connecting member and the first terminal or the last terminal. In other words, the connecting member is not in contact with the first terminal or the last terminal adjacent to the connecting member. Thus, the width of the first terminal or the last terminal is not increased, ensuring the high-frequency transmission rate of the first terminal group, and thereby forming an electrical connector which is capable of facilitating machining without affecting the transmission quality of the terminals, and having a stable structure and high-frequency transmission performance.

Abstract: A method for generating an AI-based building energy model for a client building, comprising: generating an energy profile database by: defining a set of building parameters; generating energy profiles by simulating a set of physical building models; and, populating the energy profile database with the energy profiles; determining an energy profile for the client building by: splitting the energy profile database into groups and clustering each group into a set of clusters; selecting a cluster; and, selecting the energy profile in the cluster that is a closest match to that of the client building; selecting a physical building model from a building model database that corresponds to the energy profile; calibrating the physical building model to generate an adjusted building model; and, generating a set of training datasets from the adjusted building model and inputting the set of training datasets into an AI module to generate the AI-based model.

Abstract: A method for receiving an activation request for an application element installed in a client device is provided. The method includes identifying one or more images from a first image database selected by a user in the client device and performing a reverse image search to identify one or more images in a second image database that are visually similar to the images from the first image database. The method also includes providing the one or more images in the second image database to the user via the client device and adding a user-selected image from the one or more images in the second image database to a collection in the second image database, the collection being associated with the user.

Abstract: A method for controlling an operating condition of an electric power grid having an intermittent power supply coupled thereto, comprising: using an energy variability controller, controlling variability of a delivered power output of the intermittent power supply to the grid by: monitoring an actual environmental value for a location proximate the intermittent power supply, an available power output of the intermittent power supply being dependent on the actual environmental value; when the actual environmental value is increasing and hence the available power output is increasing, increasing the delivered power output according to a predetermined rate of increase; monitoring a forecast environmental value for the location; when the forecast environmental value is decreasing, decreasing the delivered power output according to a predetermined rate of decrease; and, limiting the delivered power output to below a predetermined threshold. The electric power grid may be or may include an electric power microgrid.

Abstract: A near-eye display includes a human eye-oriented display screen, a microlens array located on the side of the display screen close to human eyes, and an image adjustment unit. The display screen has multiple display regions that are separate from each other. Each display region correspondingly displays a subimage, and the subimages displayed on the display regions combine a complete, gap-free and overlap-free image presented to a user. The microlens array focuses the image displayed on the display screen into a near-eye image that can be clearly seen by human eyes, each microlens being corresponding to one of the display region. The image adjustment unit adjusts in real time a displayed image size of each display region according to a visual acuity state of the user and/or the image adjustment unit moves in real time the position of each display region according to a gaze direction of the user.

Abstract: A method for controlling temperature in a thermal zone within a building, comprising: using a processor, receiving a desired temperature range for the thermal zone; determining a forecast ambient temperature value for an external surface of the building proximate the thermal zone; using a predictive model for the building, determining set points for a heating, ventilating, and air conditioning (“HVAC”) system associated with the thermal zone that minimize energy use by the building; the desired temperature range and the forecast ambient temperature value being inputs to the predictive model; the predictive model being trained using respective historical measured value data for at least one of the inputs; and, controlling the HVAC system with the set points to maintain an actual temperature value of the thermal zone within the desired temperature range for the thermal zone.

Abstract: In at least one implementation, a structural rail for a vehicle includes a main body and a front portion. The main body has an upper wall, a lower wall, an inner sidewall and an outer sidewall spaced from the inner sidewall. The front portion has a rear end adjacent to the second end of the main body and a front end spaced from the rear end. The main body has a first bend between the first end and second end so that a portion of the main body is angled outwardly and an included angle of less than 180 degrees is provided in the outer sidewall. The rail also includes a second bend between the first bend and the front end, and the second bend further angles at least part of the front portion outwardly relative to the outwardly angled portion of the main body.

Abstract: In at least one implementation, a structural rail for a vehicle includes a main body and a front portion. The main body has an upper wall, a lower wall, an inner sidewall and an outer sidewall spaced from the inner sidewall. The front portion has a rear end adjacent to the second end of the main body and a front end spaced from the rear end. The main body has a first bend between the first end and second end so that a portion of the main body is angled outwardly and an included angle of less than 180 degrees is provided in the outer sidewall. The rail also includes a second bend between the first bend and the front end, and the second bend further angles at least part of the front portion outwardly relative to the outwardly angled portion of the main body.

Abstract: Disclosed are a visual positioning device (101) and a three-dimensional surveying and mapping system (100) including at least one visual positioning device (101). The visual positioning device (101) includes an infrared light source (101b), an infrared camera (101a), a signal transceiver module (101d) and a visible light camera (101c). The three-dimensional surveying and mapping system (100) further includes a plurality of position identification points (102), a plurality of active signal points (103) and an image processing server (104). The image processing server (104) is configured to cache infrared images and real scene images shot by the infrared camera (101a) and the visible light camera (101c) and positioning information thereabout and store a three-dimensional model obtained through reconstruction. The present invention has the advantages of simple structure, no need for a power supply, convenience in use and high precision, etc.

Abstract: A visual positioning system based on highly infrared-reflective identification, including a plurality of identification points (102), an infrared photographing device (101) and an image processing unit (103). The plurality of identification points (102) is passive identification points made of a highly infrared-reflective material and are arranged at equal intervals in a plane to be positioned; the infrared photographing device (101) is used for shooting a reflective image of the identification points (102); and the image processing unit (103) obtains a relative position and relative attitude variation by acquiring and analyzing information about an image shot by an infrared camera (101a). Also provided is a visual positioning method based on highly infrared-reflective identification. The visual positioning system and method have the advantages of simple structure, no need of power supply, low costs, no delay and high positioning precision.

Abstract: The present invention provides a microlens array-based near-eye display, comprising a display screen facing the eyes and displaying images, a microlens array located between the display screen and the eyes, an eyeball-tracing camera and an image processing unit, wherein the microlens array is used for magnifying and projecting the image displayed on the display screen onto the retinas of the eyes, and comprises a plurality of microlens units having the same shape and structure and arranged into an array; the image displayed on the display screen is divided into a plurality of sub-images spaced apart and having the same shape and size, each corresponding to one of the microlens units in the microlens array; the image processing unit is used for segmenting an original image into a plurality of sub-images matching with the microlens array for presentation.

Abstract: The present invention provides a transmissive augmented reality near-eye display successively including a first microlens array for shooting reality, an imaging unit, a display screen, and a second microlens array in decreasing order of distances from a human eye:, and further including an image processing unit, particularly, the first microlens array includes a plurality of microlenses units for focusing a beam from the external reality; the imaging unit is arranged on the focal plane of the first microlens array, for imaging an optical signal collected by the first microlens array in a photosensitive manner; the image processing unit is configured to acquire the image data induced by the imaging unit so as to obtain a reality image with different depths of field, and fuse the virtual image into the reality image for presenting on the display screen.

Abstract: The present disclosure provides an optical invisible device. The optical invisible device sequentially comprises along an incident direction of an optical path: a first microlens array for imaging, an imaging unit, a display screen, and a second microlens array for projecting content displayed by the display screen to the outside, and further comprises an image processing unit. In addition, there is further provided another optical invisible device, which comprises: a first microlens array for imaging, a first imaging unit, a first image processing unit, a first display screen, and a second microlens array that are located at a first side, and a third microlens array, a second imaging unit, a second image processing unit, a second display screen, and a fourth microlens array that are located at a second side.

Abstract: A near-eye display includes a human eye-oriented display screen, a microlens array located on the side of the display screen close to human eyes, and an image adjustment unit. The display screen has multiple display regions that are separate from each other. Each display region correspondingly displays a subimage, and the subimages displayed on the display regions combine a complete, gap-free and overlap-free image presented to a user. The microlens array focuses the image displayed on the display screen into a near-eye image that can be clearly seen by human eyes, each microlens being corresponding to one of the display region. The image adjustment unit adjusts in real time a displayed image size of each display region according to a visual acuity state of the user and/or the image adjustment unit moves in real time the position of each display region according to a gaze direction of the user.

Abstract: A vehicle crossmember assembly including a pair of main rails, a crossmember, and a pair of pedestals is provided. The main rails are laterally spaced apart. The crossmember is transverse to the main rails. The pedestals extend between and connect lateral ends of the crossmember to the main rails. Each pedestal has a lower end disposed adjacent to the crossmember and an upper end that projects upwardly from the crossmember. Fasteners connect the pedestals to the main rails. Each pedestal has a sleeve disposed at the upper end. Each sleeve has a sleeve wall defining a bore that receives one of the fasteners and each sleeve has a slit in the sleeve wall. Each slit provides a release path through which one of the fasteners can pull through the sleeve wall during an impact event, allowing the pedestals to detach from the main rails.

Abstract: Methods and apparatus include determine velocity of a detected presence in a first direction relative to a capacitive sensing surface, during a period of time, and determine velocity of the detected presence in a second direction relative to the capacitive sensing surface, during the period of time. Methods and apparatus detect a change in the determined velocity in the first direction at a first time, detect a change in the determined velocity in the second direction at a second time; and recognize a user command based on a difference between the first time and the second time.

Abstract: A spatial focal field type glasses display product can present virtual images at different distances simultaneously. The product is a frame type glasses or corneal contact lens and comprises a projection component and a display control device. The projection component comprises a plurality of projection units, each projection unit projects a plurality of elementary beams. The elementary beams projected by the same projection unit diverge and do not intercept with each other. The elementary beams projected by different projection units intersect near the retina after passing through the crystalline lens. The intersection point is a cluster focus. All cluster focuses form a spatial focal field which envelop the retina. When the diopter of the crystalline lens changes, the spatial focal field displaces and deforms accordingly, so different cluster focuses fall on the retina to be seen clearly, while the other cluster focuses tend to disperse and cannot be seen clearly.

Abstract: A method for controlling temperature in a thermal zone within a building, comprising: using a processor, receiving a desired temperature range for the thermal zone; determining a forecast ambient temperature value for an external surface of the building proximate the thermal zone; using a predictive model for the building, determining set points for a heating, ventilating, and air conditioning (“HVAC”) system associated with the thermal zone that minimize energy use by the building; the desired temperature range and the forecast ambient temperature value being inputs to the predictive model; the predictive model being trained using respective historical measured value data for at least one of the inputs; and, controlling the HVAC system with the set points to maintain an actual temperature value of the thermal zone within the desired temperature range for the thermal zone.

Abstract: A switch circuit and method is described. In one embodiment, the switch circuit is configured to couple each of a plurality of plurality of capacitive sense elements and a plurality of capacitance sensors in different modes. In a first mode, the switch circuit is configured to couple each of the plurality of capacitance sensors to a group of two or more of the plurality of capacitive sense elements. In a second mode, the switch circuit is configured to couple the plurality of capacitance sensors to individual ones of the two or more of the plurality of capacitive sense elements in one of the groups.