48 results about "Live organisms" patented technology

The present invention relates to a device (10) for vibrating aquariums (18) intended to house living organisms in order to study their sensitivity and response to vibrations. The device comprises a base (12), a frame (14) arranged above the base (12) to form a workspace (24) between the base (12) and the frame (14), an armature (28) fixed to the base (12) and supporting the frame (14), a support (16) placed in the workspace (24) and intended to hold at least one aquarium (18), and a vibrating module (64) comprising a housing (66) mounted on the frame (14) and an end (68) fixed to the support (16). The support (16) is carried by the frame (14) by means of at least one suspension element (40) capable of elastic deformation. Figure for the abstract: 2

A biological body detection device is provided with at least one radar and an ECU. The radar is mounted in a vehicle, transmits a pulse wave of a predetermined frequency, and receives a reflected wave of the pulse wave. The radar performs a plurality of times of transmission and reception at predetermined intervals. The reception time of the reflected wave is longer than the time corresponding to the distance between the radar and the position farthest from the radar in the end portion of the vehicle. The ECU detects the presence or absence of a living body on the basis of a reception signal during multiple transmissions and receptions.

A glucose concentration estimation device includes a first light source, a second light source, a third light source, a light receiving element, and an estimation unit. The first light source irradiates a living body with first light including light of one wavelength in the wavelength range of 1375-1395 nm. The second light source irradiates the living body with second light including light of one wavelength in the wavelength range of 1575-1595 nm. The third light source irradiates the living body with third light including light of one wavelength in the wavelength range of 1835-1855 nm. The light receiving element receives reflected light returning from the living body when the living body is irradiated with the first to third light. The estimation unit estimates the glucose concentration on the basis of the output of the light-receiving element.

The invention relates to a growing unit (10) for living organisms. the system comprises a growing chamber (100) having a growing space (101) inside the growing chamber 5 (100), movable growing containers (60), the grooving containers being arranged to receive one or more living organisms, a support system (40) comprising vertically superposed platforms (42), the platforms (42) being arranged to support the movable growing containers (60) 10 inside the growing chamber (100), conditioning modules (50) configured provide conditioning medium towards one or more growing containers (60) supported to the vertically superposed platforms (42) for conditioning living organisms; and a transport system (20, 22, 24, 25, 27) arranged to move 15 the growing containers (60) inside the growing chamber (100) to and from the platforms (42).

The present invention provides a detection device and a measuring device capable of miniaturizing the device structure. The detection device of the present invention comprises: a first light emitting unit that emits a first light having a green wavelength band; a second light emitting unit that emits a second light having a wavelength band longer than the green wavelength band; a first light receiving unit that receives the first light emitted from the first light emitting unit and emitted from a living organism; and a second light receiving unit that receives the second light emitted from the second light emitting unit and emitted from the living organism. When the direction in which the first and second light emitting units are arranged is defined as a first direction and a direction intersecting the first direction is defined as a second direction, in the second direction, at least a portion of the first light receiving unit is positioned closer to the first light emitting unit than the second light receiving unit, and the area of ​​the first light receiving unit is smaller than the area of ​​the second light receiving unit.

The invention relates to the field of biophysics in plant cultivation and the protection of plants using devices that are sources of modulated ultrasonic radiation, and more particularly to the use of ultrasound for selectively acting on plants, insects, animals and microorganisms. The technical result of the invention, which consists in more efficient cultivation and a greater yield of high-quality crops, in addition to an improved post-harvest storage life, is achieved by means of a method for selectively acting on plants and living organisms with modulated ultrasound in which selective action is carried out by irradiation using an emitter of a selective action device, said device being used to expose a living organism to a biologically active spectrum in the from of modulated ultrasonic radiation consisting of an ultrasonic carrier wave with a frequency of 40 kHz and a background frequency in the form of a modulated signal composed of a set of solitons, wherein the biologically active spectrum for a selective action is determined in a device for determining biologically active spectra where a spectrum analyzer is used in a closed chamber to select a spectrum of radiation having waves that resonate with the living organism of interest.

We provide a notification system that can alert users to abnormalities in living organisms while protecting personal information. [Solution] The notification system comprises: a detection device installed in a target space that detects information within the target space; a skeleton data generation unit that estimates the skeleton of an organism present in the target space and generates skeleton data based on detection data showing the detection results of the detection device; a change data generation unit that generates change data showing changes in the organism based on the skeleton data; an abnormality detection unit that detects abnormalities in the organism based on the change data; and a notification unit that notifies the organism that an abnormality has been detected when such an abnormality is detected.

To improve prediction accuracy when there are gaps in time-series biological data. [Solution] The analysis device includes an input unit that inputs first time-series data of detected values ​​of a living organism and second time-series data indicating the state of the living organism; an extraction unit that extracts time-series detected values ​​from the first time-series data for a specific state period; a first aggregation unit that aggregates the time-series detected values ​​for that period unit by unit time and outputs first one-dimensional array data of statistical values ​​time-series; a second aggregation unit that aggregates missing detected values ​​in the time-series data of detected values ​​unit by unit time and outputs second one-dimensional array data of missing features time-series; a splitting unit that divides the first one-dimensional array data based on a specific frequency to generate a plurality of first two-dimensional array data, and divides the second one-dimensional array data to generate a plurality of second two-dimensional array data; a merging unit that combines the plurality of first two-dimensional array data and second two-dimensional array data; and an identification unit that performs a convolution operation on the combined result and outputs an identification result.

A chamber for growing living organisms in space. The chamber has at least one receptacle for removably receiving a cuvette. The cuvette is maintained at atmospheric pressure and has a living organism inside and which is subject to space experimentation. The cuvettes have at least one transparent window for viewing the living organism and allowing light to reach the living organism inside the cuvette. The light may be integrated into the chamber. The chamber may be transported to and from outer space on a transport vehicle. The transport vehicle may be subjected to the vacuum of space during extra vehicular activities while the cuvettes remain at atmospheric pressure, protecting the living organism and allowing the experimentation to continue.

To provide a method for producing a feed material, by which the feed material can be produced from an organism to be treated containing Clark's crayfish at a low cost without the fear of infection with Aphanomyces fungi, etc., and without destroying nutrients.SOLUTION: The method for producing the feed material includes a crushed material treatment for crushing a treatment object organism (S) containing at least Clark's crayfish to obtain a minced or slurry-like crushed material (F), an ultrasonic treatment for applying ultrasonic waves to the crushed material (F), and a non-heating sterilization treatment for sterilizing the crushed material subjected to the ultrasonic treatment without heating.SELECTED DRAWING: Figure 2

The present disclosure provides a bioimaging system and a bioimaging method. A bioimaging system includes multiple light emitters configured to irradiate light and multiple sensors configured to detect light reflected by internal tissue of a living organism. Each sensor includes multiple light detecting elements having different absorption peak wavelengths relative to each other.

The invention provides an in-vehicle living body existence detection method and device, a storage medium and an electronic device.The method comprises the steps that a star flash communication module of a vehicle is called to collect first static initial information in the vehicle in a basic SLB mode, and collect second static initial information in the vehicle in a low-power-consumption SLE mode; judging whether a target living body exists in the vehicle or not according to the first static initial information and the second static initial information; if the target living body exists in the vehicle, the satellite flash communication module is controlled to locate the living body position of the target living body in an SLE mode; and controlling the satellite flash communication module to identify the living body type of the target living body in an SLB mode. According to the embodiment of the invention, the detection of the position and type of the living body in the vehicle is realized, the detection precision of the living body in the vehicle is improved, and the false alarm when an adult is in the vehicle is avoided.

The present application relates to the technical field of breeding monitoring, and discloses a factory breeding biomass real-time monitoring device fusing machine vision, which is used to solve the problem that non-living organisms such as bubbles are mistaken for living organisms when monitoring breeding organisms, and comprises the following steps: underwater image acquisition to obtain an underwater image; obtaining a fusion sensor; preliminary living organism identification on the underwater image to obtain a preliminary living organism image; obtaining living organism information of the preliminary living organism image through the fusion sensor; obtaining a living organism determination index according to the living organism information evaluation; living organism determination according to the living organism determination index to obtain a determined living organism; obtaining the number, size and density of the determined living organism; analyzing the biomass according to the number, size and density of the determined living organism; visualizing the biomass; and updating the real-time data, which effectively improves the accuracy of biomass data acquisition and the efficiency of subsequent breeding management.

Disclosed herein is a method comprising introducing a tracer into a body region of a living organism at an introduction site; causing emission of characteristic X-rays of the tracer in the body region (710); taking an image of the tracer in the body region with the characteristic X-rays (720); determining a first three-dimensional (3D) distribution of the tracer in the body region based on the image (730); and examining the first 3D distribution of the tracer in the body region to identify a sentinel lymph node of the introduction site. If the sentinel lymph node is not identified in the first 3D distribution, the method further comprises repeating the foregoing causing emission of characteristic X-rays of the tracer in the body region, the foregoing taking an image of the tracer in the body region, and the foregoing determining a 3D distribution of the tracer in the body region to produce a second 3D distribution of the tracer in the body region; and examining the second 3D distribution to identify the sentinel lymph node.

The utility model discloses a device for simulating a transmembrane contact substance in a living body. Comprising a simulator II, a flow adjusting pump, a double-hole piston, a main tank body, a heat preservation box, a simulator I, a heat preservation bottle, a hose, a liquid storage bottle, an upper closing pipe, a cylindrical liquid storage bottle, a circular biological membrane, a lower closing pipe, a rectangular-column-shaped liquid storage bottle, a rectangular-column-shaped pipe and a rectangular biological membrane. The device is easy to operate, low in cost, high in automation degree, capable of being operated by one person, high in efficiency and capable of achieving simulation of transmembrane flowing and flowing contact with a certain substance in a living body at the same time, and a transverse comparison can be conveniently made; the main body parts of the device are all arranged in the heat preservation box, the temperature in the main tank body and the temperature in the liquid storage bottle can be effectively kept consistent, the temperature of the heat preservation box can be adjusted according to needs, and the environmental condition in a living body is simulated to the maximum extent.

The embodiment of the specification provides a kind of recognition method and system of organism vessel, the method includes obtaining the three-dimensional image data of organism and its first segmentation result, second segmentation result, at least one organism vessel in second segmentation result is type pending vessel, fusion first segmentation result and second segmentation result, obtain fusion result;Skeletonization processing is carried out to first segmentation result, obtain first vessel skeleton set, wherein first vessel skeleton set includes at least one type determined vessel skeleton;Skeletonization processing is carried out to fusion result, obtain the vessel skeleton of type pending vessel;The type determined vessel skeleton in first vessel skeleton set is obtained as reference vessel skeleton set with the minimum spatial distance of the vessel skeleton of type pending vessel less than preset value D;Determine the nearest point group of the vessel skeleton of type pending vessel and reference vessel skeleton in reference vessel skeleton set;Determine the type of type pending vessel based on nearest point group.

A decorative movement system for aquariums, comprising: an air compressor for driving an airflow; a multi-way valve arranged outside the aquarium together with the air compressor; an inflatable body located inside the aquarium having an inlet connected to the multi-way valve and an outlet in fluid communication with the aquarium; and connecting lines for fluid communication with the air compressor, the multi-way valve, and the inflatable body, wherein the system is designed to inflate and deflate the inflatable body by actuating the air compressor and the multi-way valve, causing the inflatable body to expand and contract respectively to simulate the movements of living organisms in water, and wherein the system is designed such that, during deflation, water located inside the aquarium can enter the inflatable body through at least one opening and the outlet.

The goal is to enable high-precision identification of whether an image contains a real living organism or a non-living, artificial object. [Solution] A learning device for learning a model to identify whether the subject of an image is a real living organism or a non-living artificial object, the device acquires living organism images including living organisms and non-living organism images including non-living organisms, processes the acquired living organism images or non-living organism images to generate at least one of pseudo-living organism images including pseudo-living organisms and pseudo-non-living organism images including pseudo-non-living organisms, and learns a model to identify the attributes of living organisms, non-living organisms, pseudo-living organisms, and pseudo-non-living organisms based on the acquired living organism images and non-living organism images and at least one of the generated pseudo-living organism images and pseudo-non-living organism images.

The invention discloses a living body existence detection method, an electronic device, a system, a vehicle, a medium and a product, and is applied to the technical field of living body detection. The method is applied to a wireless communication module, the wireless communication module is used for receiving and transmitting a wireless communication signal, and the method comprises the following steps: acquiring the wireless communication signal received by the wireless communication module; living body detection is carried out based on the wireless communication signal to obtain a detection result, and the detection result comprises whether a living body exists or not. By using the wireless communication signal to carry out living body detection, the hardware cost can be prevented from being increased, the coverage effect and generalization ability of detection are enhanced, a detection blind area is not easy to appear, and the detection precision of living body existence detection is improved at the same time.

A biological sensor (100) is provided with a housing (2) and a substrate (1) disposed on the inside of the housing (2), the housing (2) has a convex curved surface protruding in a first direction, and the first direction of the housing (2) is used so as to face a biological body. The substrate (1) has a first portion (11) and a second portion (12), which have different positions in the first direction, and a protruding portion that is provided between the first portion and the second portion and that causes the first portion to protrude from the second portion in the first direction. A biological body detection element is disposed on a plane orthogonal to the first direction of the first section (11).

The present invention relates to the field of water quality monitoring and discloses a coastal water quality comprehensive toxicity monitoring system based on multi-source environmental data, comprising a multi-living organism monitoring unit, a multi-source environmental parameter acquisition unit, a data processing and analysis unit and an early warning unit; the multi-living organism monitoring unit is provided with a variety of sensitive living organisms to collect their behavior data in real time; the environmental parameter acquisition unit synchronously obtains environmental parameters; the data processing unit uses a preset toxicity analysis model and combines the environmental parameters to correct the living organism behavior analysis results to judge the comprehensive toxicity of water quality; the early warning unit adopts a graded early warning mechanism, divides different warning levels according to the comprehensive toxicity index and the area of ​​the toxic area, performs graded warnings through sound and light, and implements differentiated control measures for the toxic area; the present invention realizes multi-dimensional precise monitoring of the comprehensive toxicity of coastal water quality, intelligent dynamic early warning and efficient regional control, and effectively improves the coastal ecological environment protection capability.

This invention discloses a device for implanting chip tags into living organisms, belonging to the field of chip tag implantation. It includes a housing, a front fixing block, a rear fixing block, a main shaft, and a first elastic element. During implantation, the bullet-shaped carrier completes the skin penetration and implantation in one step, greatly improving implantation efficiency. The auxiliary rod prevents the implanter from contacting the living organism's blood, thus avoiding cross-infection. Simultaneously, the auxiliary rod controls the depth of the implanted tag within the living organism. It also prevents the tag from dislodging through the wound and reduces bleeding from the living organism's wound. An elastic element is provided between the handle and the rear fixing block. During the implantation process, as the main shaft moves towards the front of the housing after release, a spring provides elastic force to buffer and decelerate the handle and main shaft until they stop. This allows control over the implantation speed, force, and depth of the tag.

To provide a biological information calculation device that can appropriately calculate biological information for individual organisms. [Solution] The biological information calculation device comprises an acquisition unit that acquires biological signals about a living organism, and a biological information calculation unit that calculates predicted biological information values ​​for the biological information from the biological signals using a regression model corresponding to the biological signals and reference biological information indicating the biological information about the living organism.

An information processing apparatus according to the present application includes: an acquisition unit configured to acquire individual information indicating a characteristic of behavior of an individual belonging to a group of living organisms to be processed arranged in a virtual space, relative information indicating a characteristic of the behavior relative to the individuals of other individuals located around the individual belonging to the group of living organisms to be processed with respect to the individual, and environmental information indicating a characteristic of an environment around the individual belonging to the group of living organisms to be processed; and a determination unit configured to determine a behavior of an individual belonging to the group of living organisms to be processed on the basis of the individual information, the relative information, and the environmental information acquired by the acquisition unit.

According to the present disclosure, there is provided a system for culturing animal cells using a component derived from an organism such as algae as a nutrient source, and reusing the culture waste liquid. The present disclosure provides an organism or a cultured cell which undergoes a modification, in which the modification includes imparting or enhancing L-lactate utilization ability in the organism or the cultured cell. In addition, the present disclosure provides a method for culturing at least two types of cells including a cell X and a cell Y in a circulation manner, the method including: a step (a) of providing a component excreted from the cell X to the cell Y; a step (b) of providing a component derived from the cell Y to the cell X; a step (c) of culturing the cell X and the cell Y; and a step (d) of repeating the steps (a) to (c) as necessary, in which at least one of the components excreted from the cell X is an assimilable component of the cell Y, and at least one of the components derived from the cell Y is a nutritional component of the cell X.

A system and a method for imaging are provided for using in high-throughput imaging of bio-specimens, including, for example but not limited to, movements of bacteria or a colloidal suspension, and tracking of microscopic living organisms or particles. The system and method may be used for generating a volumetric image of a sample by combining holographic and fluorescence imaging techniques as disclosed herein. The system and method may include obtaining, via an optical imaging system, a fluorescence image and a digital hologram of a sample comprising one or more objects; generating a two-dimensional depth map of the one or more objects based on the digital hologram; correlating the two-dimensional depth map of the one or more objects with the fluorescence image of the sample; and generating a volumetric image of the one or more objects in a three-dimensional volume.

An integrated detection system for in-situ monitoring of the moisture content of living combustible materials is provided with a monitoring device, and the monitoring device comprises a microwave transmitter and a microwave receiver which are oppositely arranged; the microwave transmitter and the microwave receiver are connected with a central processing and communication module, and the central processing and communication module is connected with a micro weather station and a remote server; the microwave transmitter and the microwave receiver are used for collecting microwave signals penetrating through living combustible materials; the micro weather station is used for collecting an environment parameter set of a target area; a preprocessing module and a lightweight model prediction module are integrated in the central processing and communication module, and the preprocessing module is used for performing preprocessing operation on microwave signals and an environment parameter set to construct an input feature vector; and the lightweight model prediction module is used for performing moisture content prediction according to the input feature vector and sending a moisture content prediction result to the remote server. The method has the effect that real-time, lossless and high-precision monitoring on the moisture content of the living combustible can be realized.

(a) receiving an image set including at least two reflection images generated at different points in time and an indication of at least one interval between at least two different points in time, where a reflection image is generated while the living organism is illuminated by patterned coherent electromagnetic radiation and includes a pattern with at least one pattern feature, and, where the reflection image shows at least one pattern feature formed by illuminating at least a part of the living organism by the patterned coherent electromagnetic radiation;(b) determining a feature contrast of the at least two pattern features;(c) determining a condition measure of the living organism based on the feature contrast and the indication of the at least one interval; and(d) outputting the condition measure.

The present invention provides a chamber system which is useful for studying the effects of contaminants, particularly contaminants in the form of aerosols, on living organisms.

1. The name of this design product: the main body of the automated ultrasonic robot. 2. Purpose of the product of this design: The automated ultrasonic robot and the main body of the automated ultrasonic robot are used to perform automated ultrasonic scanning of living organisms based on sensors and autonomous navigation algorithms to collect ultrasonic image information. 3. The design highlights of this appearance design product lie in the shape of the main body of the automated ultrasonic robot. 4. The picture or photo that best illustrates the design points: Stereoscopic drawing 1. 5. Other situations that require explanation Other explanations: The dotted lines in the figure represent the parts of this design that are not claimed for protection.