118 results about "Image transfer" patented technology

An image forming apparatus includes: a forming unit configured to form an image on a sheet by forming a plurality of toner images using a plurality of types of toner, and transfer the plurality of toner images onto the sheet, or transfer the plurality of toner images onto the sheet via an intermediate transfer member; and a controller configured to control the forming unit to form a formed image and an antimicrobial pattern on the sheet based on first image data representing the formed image, wherein at least one first toner out of the plurality of types of toner is antimicrobial toner that includes an antimicrobial agent, at least one second toner out of the plurality of types of toner is non-antimicrobial toner that does not contain the antimicrobial agent, and the antimicrobial pattern is formed using the first toner.

Disclosed is a vehicle outer waist belt for use in motor vehicles. The system includes an outer glass sealing element that seals between the inner environment of the vehicle and the outer environment of the vehicle, at least one reservoir on the outer glass sealing element, a camera that provides instantaneous display of the traffic status behind the vehicle in the reservoir, a side signal light compartment made of transparent thermoplastic elastomer (TPE) material that provides the return signal of the vehicle in the reservoir, an upper cover closed on the reservoir and sealing the camera, a conductive polymer with high electrical conductivity that provides the electrical connection of the camera and the side signal light compartment, and a display that allows the driver to see the instantaneous images transferred from the camera inside the vehicle.

This invention discloses a method for fabricating a metasurface lens and a metasurface lens, relating to the field of metasurface lens technology. The method includes: acquiring a metasurface lens image; dividing the metasurface lens image according to a preset size to obtain at least two sub-images and a mask set corresponding to each sub-image; performing image transfer on a first wafer using the at least two sub-images and the mask set corresponding to each sub-image to obtain a second wafer carrying the metasurface lens image; and performing lens fabrication processing on the second wafer to obtain the metasurface lens. Through this method, this invention can improve efficiency and reduce costs while meeting optical performance requirements.

The invention belongs to the field of circuit board processing, and particularly relates to a circuit board and a processing method thereof, and the method comprises the following steps: transferring an image on a production film to a plate; electroplating a conductive layer on the exposed copper sheet of the circuit pattern of the board and the hole wall; removing an anti-electroplating covering film layer of the plate by using a cleaning solution to expose a non-circuit copper layer of the plate; the plate is installed in a machining device to be subjected to acid pickling, an exposed copper layer on the plate is removed through an acid pickling solution, and the residual acid pickling solution on the plate is removed while the plate is separated from the acid pickling solution; the board is immersed in water, the board is cleaned, residual water on the board is removed while the board is separated from the water, the board is dried, and the circuit board is obtained; according to the method, the residual pickling solution on the plate can be removed while the plate is separated from the pickling solution, and the pickling solution is prevented from dripping on other equipment.

An image forming apparatus (IFA) includes a first mechanism to change a state of an image transfer belt (ITB), a second mechanism to control a shutter for a calibration sensor, a motor to drive the first mechanism and the second mechanism, and a processor to control the motor to operate in a first mode, a second mode, or a third mode. In the first mode, the motor is controlled to drive the first mechanism to change the state of the ITB, in the second mode, the motor is controlled to drive the second mechanism to open or close the shutter, and in the third mode, the processor is to identify a position of the shutter, and to drive the second mechanism to place the shutter in a closed position based on the identified position.

The invention relates to an infrared image system having a lens for generating an image of a motif having at least two different temperatures T1 and T2, an image guide associated with the lens at a distal end for image transfer and a detector unit for image capture. The detector unit is associated with a proximal end of the image guide and the ratio of the shared thermal resolution (NETD) of the image guide and the detector unit to the thermal resolution (NETD) of the detector unit is less than 10, preferably less than 5, particularly preferably less than 2.

To provide an image transmission system, an image transmission method, and a program capable of stably transmitting an image picked up in an environment where radio communication using a high-speed communication line is limited.SOLUTION: The image transmission apparatus generates second images by dividing a first image captured by the imaging apparatus by a predetermined capacity based on a transmission capacity in first wireless communication that enables long-distance communication with low power consumption, and transmits each of the second images to the image transfer apparatus via the first wireless communication, the image transfer apparatus receives and accumulates the second image transmitted by the image transmission apparatus, and transmits the second image as a third image to the image reception apparatus by second wireless communication capable of communication faster than the first wireless communication in response to a request from the image reception apparatus, and the image reception apparatus requests transmission of the third image, receives the third image transmitted by the image transfer apparatus, and generates a fourth image reproducing the first image on the basis of the third image.SELECTED DRAWING: Figure 1

The application provides a heat transfer printing method and an article containing a heat transfer printed image, the heat transfer printing method comprising the following steps: S1: a host computer controls a process cartridge to print carbon powder on a transfer belt according to a preset pattern to form a visible image; S2: the host computer controls the transfer belt to move the visible image formed in the step S1 above a first heating device; S3: a material to be transferred is placed on a bearing part, and a side of the material to be transferred, which needs to be transferred with a pattern, faces the transfer belt; and S4: the host computer controls a heating part to heat, so that heat sublimation dyes in the carbon powder sublimate, and thus the visible image is transferred onto the material to be transferred at one time. The carbon powder is used as a medium to realize the heat transfer printing image transfer process, and the transfer process time is short, the cost is relatively low, and the transfer quality is improved. Meanwhile, one-time color imaging can be realized, and the imaging is transferred again, and the one-time multi-color imaging and one-time heat transfer printing technology bring better printing effect and more convenient operation.

To suppress a decrease in productivity during double-sided printing.SOLUTION: The engine control unit 301 is configured to be able to execute the first operation (S705) when the predetermined condition is not satisfied, and to be able to execute the second operation (S704) when the predetermined condition is satisfied. The predetermined condition includes at least one of an environmental temperature being equal to or higher than a predetermined temperature, a remaining lifetime of the developing device being less than a predetermined value, designation of the second operation by the user, an image concentration of the immediately preceding print being equal to or greater than a predetermined value, an image of the immediately preceding print including a text other than text, and a maximum concentration of a partial region of the immediately preceding print being equal to or greater than a predetermined value (S721 to S723). The toner image formed in the second operation is transferred to the re-conveyed sheet (S704, S707, S708).SELECTED DRAWING: Figure 8

A processing device includes a process portion and a processor. The process portion performs medium processing on a transfer medium, subsequent to or prior to ejection of ink forming an image to be transferred from the transfer medium to a transfer-receival medium. The processor causes the process portion to perform one of the medium processing of forming additional information on the transfer medium in a non-transfer mode, or the medium processing of implementing a restriction procedure on the additional information formed on the transfer medium, or the medium processing of implementing an image transfer procedure on the image formed on the transfer medium and not implementing an information transfer procedure on the additional information formed on the transfer medium.

This application provides a data processing method and apparatus for intelligent figurines, achieving precise feature mapping through image transfer and speech synthesis. An interactive mechanism is constructed, combining emotion recognition and behavioral decision-making to establish a reliable execution strategy. Closed-loop optimization is introduced, ensuring continuous improvement of control through resource scheduling and experience learning. This method effectively addresses the shortcomings of traditional technologies in personalized processing, interactive decision-making, and execution control, providing technical support for intelligent figurines.

To provide an image forming apparatus capable of suppressing transfer deviation caused when thick paper rushes into a fixing part.SOLUTION: According to an aspect of the present disclosure, an image forming apparatus includes a transfer unit configured to transfer a toner image to a sheet, a fixing unit configured to fix the toner image to the sheet, a stiffness measurement unit configured to directly or indirectly measure stiffness of the sheet conveyed on a sheet conveyance path upstream of the transfer unit, and a control unit configured to control conveyance of the sheet. The fixing unit includes a first conveyance member, a second conveyance member, and a motor provided to rotate the first and second conveyance members, and is provided such that the sheet passes through a fixing nip between the first conveyance member and the second conveyance member, and the control unit is provided to send a control signal to the motor to change a sheet conveyance speed in the fixing unit according to a measurement result of the stiffness measurement unit.SELECTED DRAWING: Figure 6

A conversion device is operable to perform a learning-based method of generating a synthetic electron density image (sCT) of an anatomical portion based on one or more magnetic resonance (MR) images. The method is processing-efficient and capable of producing highly accurate sCT images irrespective of misalignment in the underlying training set. The conversion device receives and installs a machine-learning model trained to predict coefficients of an image transfer function. The conversion device then receives a current set of MR images of the anatomical portion, computes current coefficients of the image transfer function by operating the machine-learning model on the current set of MR images, and computes a current sCT image of the anatomical portion by operating the current coefficients, in accordance with the image transfer function, on the current set of MR images.

To provide a multi-beam phase difference measurement device capable of making measurements more efficiently by simplifying the configuration of the measurement device for measuring the phase difference of multiple laser beams, and a laser beam control system including the same.SOLUTION: The multi-beam phase difference measurement device includes: a Sagnac interferometer 200 that includes a circular optical path in which a first laser beam, one of the multiple laser beam bundles split into two, orbits in a forward direction and a second laser beam, which is the other of the multiple laser beam bundles split into two, orbits in the opposite direction, using either the first or second laser beam that has passed through the circular optical path as a reference beam, and emits an interference laser beam bundle IL where the first and second laser beams interfere with each other; an interference intensity detector 400 for detecting the interference intensity of the image of the interference laser beam bundle; and an image transfer optical system 300 that is disposed between the Sagnac interferometer and the interference intensity detector, and transfers an image of the interference laser beam bundle to the interference intensity detector.SELECTED DRAWING: Figure 3

To accurately correct the partial magnification of an image formed on a sheet.SOLUTION: An image forming apparatus has: image forming means that forms an image on an image carrier; transfer means that has a roller to form a nip part between the image carrier and itself and transfers the image on the image carrier to the recording material; a driving source for rotating the roller; control means that controls the rotation speed of the roller rotated by the driving source; acquisition means that causes the image forming means to form a test chart, causes the control means to control the rotation speed of the roller to a different rotation speed, causes the transfer means to transfer the test chart to the recording material, and acquires read data related to the test chart on the recording material; and determination means that, based on the read data acquired by the acquisition means, determines a target speed of the rotation speed controlled by the control means.SELECTED DRAWING: Figure 8

The application discloses an event camera depth estimation method based on unsupervised domain adaptation, and is suitable for the technical field of event camera depth estimation in the computer vision field. The method comprehensively analyzes the differences between the image domain and the event domain, and strengthens the connection between the two modes by changing the image style. This method can make the features in the implicit space more easily aligned, and reduce the gap in the explicit space. Training in the labeled image field, then transferring the knowledge to the unlabeled event data; using cross-domain feature alignment and depth alignment to transfer knowledge from images to events, using appearance for style transfer, and using edge invariant consistency to minimize the gap between different fields. Through unsupervised domain adaptation, event monocular depth estimation is carried out only by using the depth label of the image.

An image forming system includes a first casing, a first conveyance path, a charging unit, a second casing, a second conveyance path, and an image forming unit. The first conveyance path is disposed inside the first casing and a sheet is conveyed through the first conveyance path. The charging unit is disposed inside the first casing and charges the sheet conveyed through the first conveyance path. The second conveyance path is disposed inside the second casing and the sheet conveyed through the first conveyance path is conveyed through the second conveyance path. The image forming unit is disposed inside the second casing. The image forming unit includes an image bearing member which bears the toner image, and a transfer portion which transfers the toner image formed on the image bearing member from the image bearing member to the sheet conveyed through the second conveyance path.

To provide an image forming apparatus that can minimize damage to components during a runaway electrical current state. [Solution] The image forming apparatus comprises a fuser F that fixes an image transferred to a recording medium onto the recording medium using an endless fixing belt 310 having a plurality of halogen heaters 341 to 346 and a pressure roller 330; a plurality of switch units 411 to 416 provided corresponding to each of the plurality of halogen heaters 341 to 346; a CPU 450 that controls the connection state of the plurality of switch units 411 to 416 and controls the supply of power to the plurality of halogen heaters 341 to 346; an exclusive connection unit 420 that exclusively connects switch unit 411 and switch unit 412; and a rotation detection unit 430 that disconnects switch unit 411 and switch unit 412 based on the rotation speed of the fixing belt 310.

The present application provides an image forming apparatus and a light emitting element head. The image forming apparatus has: a toner image forming unit which forms a toner image using a first light emitting element column, a second light emitting element column, and an optical element for imaging light output of the light emitting element and exposing a photosensitive body to form a latent electrostatic image; a transfer unit which transfers the toner image to a recording medium; a fixing unit which fixes the toner image transferred to the recording medium to form an image; a switching unit which switches light emission of the first light emitting element column and the second light emitting element column at a switching position, the switching position being provided at any position in an overlapping position where the first light emitting element column and the second light emitting element column overlap; an acquisition unit which acquires information about a density difference at the switching position of the image formed on the recording medium; and a correction unit which corrects the density difference based on the information about the density difference.

The invention relates to a method for providing a transfer function in light field microscopy, in which a sample volume to be imaged is determined using a plurality of sub-images; determining a corresponding point image transfer function for the sub-image, and distributing the point image transfer function to the sub-image; checking the symmetry of the basic optical technical data of the sub-image; the confirmed symmetry is detected and saved along with a calculation rule that allows a point image transfer function and / or a processed point image transfer function of a further sub-image symmetrical to the first sub-image to be generated from the point image transfer function and / or the processed point image transfer function of the first sub-image. The invention also relates to a reconstruction method for virtually reconstructing a sample volume detected using a plurality of sub-images from different detection angles in light field microscopy.

To perform transfer of an image from a transfer medium to a to-be-transferred medium more appropriately.SOLUTION: Provided is an image transfer method for transferring an image printed on a transfer medium 50 to a to-be-transferred medium 60, including: a non-transfer area forming step of forming a non-transfer area 206 which is an area not to be transferred to the to-be-transferred medium 60 relative to a transfer target area which is an area corresponding to a portion in which a pressure is applied to the transfer medium 50 during transfer when transfer is executed; and a transfer step of transferring at least part of the image printed on the transfer medium 50 to the to-be-transferred medium 60, in which the pressure is applied to the transfer medium 50 such that the transfer medium overlaps the to-be-transferred medium 60. The transfer medium 50 has a base layer which is a layer to be a base material of the transfer medium 50 and a transfer layer which is a laminar portion which is formed in at least part of the base layer and at least part of which is moved to the to-be-transferred medium 60 during transfer.SELECTED DRAWING: Figure 2

An image transfer apparatus for transferring a received image to a transfer destination includes a management unit configured to manage first information in which sortation conditions to sort the received image are held, an association unit configured to associate a sortation condition selected by a user from among the sortation conditions included in the first information with a transfer destination selected by the user, and a transfer unit configured to transfer the received image to a specified transfer destination.

An image forming apparatus includes a plurality of image forming units configured to form images using toners of a plurality of colors, the plurality of image forming units including a first image forming unit configured to form an image using a first toner, and a second image forming unit configured to form an image using a second toner different from the first toner, an image bearing member configured to bear the images formed by the plurality of image forming units, a conveying member configured to convey a sheet to a nip portion for transferring the images on the image bearing member onto the sheet, and a controller configured to control the plurality of image forming units to form a detection image for detecting an image density.

The present invention is to provide a charge / discharge control system and a charge / discharge control method capable of performing, in real time, highly accurate analysis of an internal state of a battery that is actually operating in a vehicle, and capable of performing control on the battery with a high accuracy based on the analysis, for improvement of safety. A battery charge / discharge control system 1 includes: an image acquirer 10 arranged in an inside of a battery 100 configured as a liquid battery, and configured to capture an image of the inside of the battery 100; a transferer 30 configured to transfer data of the image captured by the image acquirer 10 and a control signal; and controllers 14 and 50 configured to perform charge / discharge control on the battery based on the data of the image transferred from the transferer 30.

In order to construct dynamic environment data with an automated annotation, a 3D model of an environment is first constructed using sensors located on a machine moving through the environment. The sensors include a first sensor to obtain point cloud data of the environment, a second sensor to obtain 2D images of an object or feature in the environment from different perspectives, and a third sensor to monitor positions and orientations of the machine. Once the 3D model is constructed, an annotated one of the 2D images and a non-annotated one of the 2D images are projected onto the 3D model and aligned with one another. The annotation is then transferred from the annotated 2D image to the non-annotated 2D image to convert the non-annotated 2D image into a second annotated 2D image. The second annotated 2D image is re-projected onto a 2D plane.

Transfer assemblies and transfer sheets and release paper for transferring images to articles, such as textiles, fabric or the like, are provided. In addition, improved methods for manufacturing the transfer sheets and the articles are provided. A transfer sheet comprises a support layer and an image transfer layer that includes an ink receptor and a blocking agent. The blocking agent is configured to block or impede the transfer of the ink composition to the substrate in non-printed areas of the image and substantially allow the transfer of the ink composition to the substrate in printed areas of the image. The systems and methods described herein provide a single step process that is “self-weeding”, while minimizing defects in the image that is printed onto the article and are particularly useful for transferring white or colored images to dark colored or black textiles and other fabrics.