500 results about "Equipments laboratory" patented technology

Applications, systems and methods for securely and remotely operating a remote computer from a local computer over a network while providing seamless, firewall-compliant connectivity. Secure and remote operation includes authenticating at least one remote computer for connection to at least one computer over the network and/or at least one local computer for connection to at least one remote computer over the network; establishing a secure connection between the at least one local computer and the at least one remote computer over the network; and integrating a desktop of at least one remote computer on a display of at least one local computer. The connections may be made over a public network, as well as through multiple firewalls without loss of functionality. A method of accessing and using at least one remote computer from a local computer over a public network may include centrally authenticating, at a location having a public address, a first computer having a first, firewall protected private address; creating a first firewall compliant connection between a publicly addressed connection server and the first computer upon authentication of the first computer; establishing a second firewall compliant connection between the publicly addressed connection server and a second computer having a second firewall protected private address; establishing a private-to-public-to-private communications tunnel, wherein the connection server routes communications from the first computer through the first firewall compliant connection and the second firewall compliant connection to the second computer, and from the second computer through the second firewall compliant connection and the first firewall compliant connection to the first computer; and performing at least one further step selected from the group consisting of: integrating a file structure of accessible files accessed at the second or first computer, into a file structure contained at the first or second computer, respectively; at least one of integrating a desktop of the second computer on a display of the first computer and integrating a desktop of the first computer on a display of the second computer; and directly operating the second computer from the first computer or the first computer from the second computer, wherein the computer that is directly operated is selected from the group consisting of: home appliances, video equipment, audio equipment, printers, fax machines, office equipment, medical devices, vehicles, cameras, RFID equipment, laboratory equipment, manufacturing machinery, GPS equipment, and devices having one or more embedded microprocessors.

Many areas of biomedical research depend on the analysis of uncommon variations in individual genes or transcripts. Here we describe a method that can quantify such variation at a scale and ease heretofore unattainable. Each DNA molecule in a collection of such molecules is converted into a single particle to which thousands of copies of DNA identical in sequence to the original are bound. This population of beads then corresponds to a one-to-one representation of the starting DNA molecules. Variation within the original population of DNA molecules can then be simply assessed by counting fluorescently-labeled particles via flow cytometry. Millions of individual DNA molecules can be assessed in this fashion with standard laboratory equipment. Moreover, specific variants can be isolated by flow sorting and employed for further experimentation. This approach can be used for the identification and quantification of rare mutations as well as to study variations in gene sequences or transcripts in specific populations or tissues.

A multiple array substrate having multiple assay chambers, each assay chamber containing one or more arrays. The assay chambers include a form-in-place gasket between a substrate and a cover. Methods of forming such multiple array substrates are described. The assay chambers may further be associated with an analysis site for analyzing a sample solution contained within the assay chamber. Each assay chamber is in fluid communication with a port, and the ports are positioned in a spatial format adapted to interface to standard laboratory equipment for handling multiple fluids in parallel.

The invention discloses a method for establishing a virtual simulation teaching practical training platform. The virtual simulation teaching practical training platform comprises a virtual simulation teaching system, a virtual simulation cloud platform, virtual simulation laboratory equipment and a virtual simulation teaching software system; the virtual simulation teaching system comprises a virtual simulation development platform, a virtual simulation display system, a virtual simulation interaction system and a virtual simulation integrated control system; the virtual simulation cloud platform comprises a foundation hardware platform, a virtualization platform, a cloud computing platform and business applications; the virtual simulation laboratory equipment comprises special inputting and demonstrating equipment capable of realizing man-machine interaction; the virtual simulation teaching software system is confirmed according to virtual simulation teaching practical training contents; the virtual simulation teaching system is set up on a business application layer of the virtual simulation cloud platform; and virtual simulation teaching software is installed in the virtual simulation teaching system.

An analytical equipment cart that provides improved flexibility in the positioning of laboratory equipment and improved height adjustability includes a frame that supports an adjustable height platform or bench top, and a plurality of castors that allow the cart to be easily moved along a floor or other surface. The analytical equipment cart facilitates quick changing of work space as projects, personnel, and equipment changes, allowing reconfiguration of laboratory work space in minutes, and providing improved productivity, adjustability and optimal ergonomics.

Provided are a performance evaluation system and method for laboratory leaning, relating to the field of education management and evaluation, in particular a performance evaluation system and method for laboratory learning for students using glass equipment as laboratory equipment. The present invention takes into consideration the shortcomings of the current performance evaluation method for laboratory learning and provides a performance evaluation system and method for laboratory learning that include an attendance statistics module, a monitoring module, an equipment management module, a laboratory data image recognition module, a laboratory data input interface module, a laboratory sample testing module, a laboratory data processing and analysis module, a laboratory knowledge computer written exam module, a student interface module, a teacher interface module, and a central processing module. The current broad observation-based student evaluation is replaced with precise evaluation based on measured student data, thereby substantially enhancing the precision of the student evaluation, and effectively lowering the working intensity of the laboratory teachers.

The invention relates to environment simulation laboratory equipment, especially to a multifunctional environment simulation cabin comprising a cabin body, a PLC control system installed at the outer wall of the cabin body, an air circulation and purification sub system for air circulation and purification inside the cabin body, a new air conveying sub system for inputting new air into the cabin body, a target gas concentration control sub system, and a pressure-control exhaust system. The PLC control system is connected with and controls a plurality of function sub systems by signals, thereby realizing simulation of the environment with different temperatures and humidity and target gas concentrations inside the cabin. According to the invention, an external circulating air hose is provided with different purification device interfaces to installed tested purification devices, so that dynamic testing of tested purifiers on the circulating air hose as well as testing of static environments with different monitoring gas concentrations can be simulated. Testing demands of various purifying devices like an adsorption type purifying device, a photocatalysis type purifying device, or a plasma-technology-based purifying device can be satisfied.

A step of preparing data of (1) material properties of a first part and so on and data of (2) an amount of solar radiation passing through the translucent member to reach a measuring device having a shape imitating a human body part, an amount of solar radiation to the structure, an amount of convection heat transfer in the structure, an amount of radiation heat transfer in the structure, humidity in the structure and/or a thermo-regulating function of the measuring device, and calculating at least one of the amount of heat loss from the surface of the measuring device, the temperature of the measuring device and/or the wettedness at the surface of the measuring device based on at least one in each of data (1) and (2), and a step (b) of calculating a thermal comfort index of the measuring device by using a result of the above calculation, are presented, whereby the thermal comfort of a structure is evaluated without using a laboratory equipment.

The invention relates to a performance test device for a water immersion focusing probe and a test method thereof. A steel ball is placed on a reference reflection seat of the performance test device placed in a water tank, the corresponding upside of the steel ball is provided and aligned with a probe to be tested, the probe to be tested generates ultrasonic signals to the steel ball through an ultrasonic gauge, and the performance difference of the probe is tested through the variation of reflection signals. A three-dimensional guide adjusting device is adjusted to test the position and variable quantity of the probe in real time so that reflection echo signals of the probe on the steel ball reaches maximum. Effective reflected wave is received by the probe and displayed on a display screen of the ultrasonic gauge in a form of wave height; scale numerical values on X axis, Y axis and Z axis of a graduated scale are recorded respectively; and various performance indexes of the probe are determined by observing the variation of the wave height. The performance test device for the water immersion focusing probe and the test method thereof are simple and practical, and can test the indexes such as focus, sound width, focus diameter, sound offset angle, sensitivity surplus, sensitivity deflection of a multi-chip probe and the like without depending on special laboratory equipment.

A system for virtual control of electronic laboratory equipment includes a local computer system. One or more items of electronic laboratory equipment are connected to the local computer system. Each item of electronic laboratory equipment has a physical control panel including one or more displays or controls. A virtual control panel generation unit generates a virtual control panel accessible from a remote computer system. The virtual control panel is substantially similar to the physical control panel in appearance. A command interpretation unit monitors interaction between the remote user and the virtual control panel and generates electronic laboratory equipment commands for exploiting the functionality of the electronic laboratory equipment.

The invention particularly relates to a shared laboratory virtual simulation method comprising the following steps that three-dimensional modeling of laboratory equipment is performed so as to generate a corresponding three-dimensional model; a target virtual experiment scene is generated according to a selection instruction transmitted by the user; the environmental parameters of the target virtual experiment scene are adjusted according to an environment control instruction transmitted by the user; and the interactive action of the user and the three-dimensional model is acquired, the three-dimensional model, the interactive action and the corresponding experiment effect of the interactive action are simulated in the target virtual experiment scene, and an experiment report and experiment scores are generated. Physical 3D modeling of the laboratory equipment is performed and virtual simulation operation is realized so that combination of the virtual reality technology and the concrete experiment scene can be realized, the operation process and the result of the concrete experiment can be familiarized through the virtual simulation experiment and the fidelity is high; meanwhile, the intelligent control technology is fused in the virtual reality so that intelligent control of the environment can be realized, the application requirements of different experiments can be met and the range of application of the shared laboratory virtual simulation method can be enhanced.

The present invention pertains to products and processes relating to compatible polymer blends comprising at least one sulfonated polymer and at least one non-sulfonated polymer. The sulfonated polymers may be produced using a number of sulfonating agents including a coordination complex of sulfur trioxide. The polymeric blended materials described herein are useful in a variety of applications, including as coatings for medical devices, protective clothing and fabric, laboratory equipment, vascular stents and shunts, absorbent materials and separation membranes, three-dimensional constructs, devices, and other uses.

The invention discloses a method of a micro combined multi-sensor navigation system with quick outfield calibration, and the micro combined multi-sensor navigation system of the method comprises a two-dimensional obliquity sensor, a micro magnetic compass, three silicon MEMS gyros and three silicon MEMS accelerometers. In order to improve the use precision of the micro combined multi-sensor navigation system, the method of the invention discloses that the instant quick outfield calibration is implemented on the micro combined multi-sensor navigation system before use; wherein, the two-dimensional obliquity sensor provides a calibration horizontal benchmark, the micro magnetic compass provides a calibration azimuth benchmark, the three silicon MEMS gyros and the three silicon MEMS accelerometers measure the output of angular velocity and accelerated velocity, and seven core error coefficients of the micro combined multi-sensor navigation system are calibrated in a data post-processing. The method of the micro combined multi-sensor navigation system with quick outfield calibration is simple, convenient and efficient, overcomes the defect that the repetitiveness of each starting of the micro combined multi-sensor navigation system is bad, directly improves the precision of each use, and avoids the inconvenience that is caused by the dependence of traditional calibration methods on special high-precision laboratory equipment.

The invention provides a laboratory equipment dynamic management system based on passive RFID. The laboratory equipment dynamic management system based on the passive RFID comprises multiple passive RFID tags, multiple locating reader-writers, an access control / borrowing and returning reader-writer and an application server. Each passive RFID tag has a unique ID number. All the passive RFID tags are pasted on laboratory equipment. All the locating reader-writers are installed in a laboratory, and radio frequency signals of each locating reader-writer cover the whole laboratory. The access control / borrowing and returning reader-writer is installed close to a door in the laboratory. The application server is provided with a tag writing module, a setting module, a query module, a borrowing and returning equipment module, a locating module and a database. The laboratory equipment dynamic management system based on the passive RFID solves the existing problems that laboratory equipment is overstocked and searching is aimless, can monitor the flow direction of the equipment, manage equipment information and facilitate searching in real time and saves manpower and material resources, and the position of the searched equipment can be easily and quickly determined in the laboratory.

A composite formulation of the present disclosure may have conductive properties (i.e. low resistance), such that the formulation may be used in resistive heating applications. The composite may have one or more matrix materials and one or more conductive fillers. The composite may be used in the formation of resistive heaters having a number of layers, including a conductive layer, the conductive layer including the composite. Heaters of the present disclosure may be used for a number of applications including ground, floor, or roof heating, or laboratory equipment heating.

The present invention relates generally to an integrated system and method for humidity control and vapor-phase decontamination of laboratory equipment with a multi-component vapor, one component of which is water vapor. The laboratory equipment can be a sealable enclosure such as an incubator, isolator, glove box, clean room, fume hood, safety cabinet, or centrifuge. The carrier gas flow is preferably in a multiple-pass, closed-loop recirculating mode. The humidity control and decontamination can be carried out automatically without user intervention for an indefinite period of time once the system has been installed, the required utilities connected and the desired settings including temperature and humidity level programmed.

The integrated humidity control and decontamination system can be retrofitted onto existing laboratory equipment.

A gas-flow cryostat adapted for dynamic temperature regulation using a fluid level sensor; the cryostat further including one or more heaters coupled to various components of the cryostat. As fluid evaporates from a liquid coolant evaporation reservoir within the cryostat, the fluid level sensor and a feedback control unit are adapted to monitor and dynamically control the level of evaporating coolant by regulating the heaters. Accordingly, the cryostat is adapted to dynamically control temperature about a specimen region within the cryostat. The cryostat can be used in various applications, including analytical laboratory equipment for measuring various physical properties of samples. Temperature sensors are further incorporated for added control and optimization of the cryostat.

The invention relates to the technical fields of basic equipment for analysis and detection and assembled and combined buildings (steel structure box assembled and combined buildings and container combined buildings) and provides an analysis and detection basic-equipment laboratory building module and a complete set design method thereof. Basic equipment of an analysis and detection laboratory is intensively designed in one integrated building module, completes building modules provided with the basic equipment of the analysis and detection laboratory form the semi-permanent and perpetual movable analysis and detection laboratory wide in application range, and the building module is widely applied to the fields of quality control analysis and detection, food safety analysis and detection, medicine quality analysis and detection, environmental protection analysis and detection, medical treatment analysis and detection, military science, agricultural production analysis and detection, industrial production analysis and detection and the like.

A vial-based system and method for handling and processing specimens of particulate matter-containing liquid directly in the vial. A processing assembly (40), which includes a stirrer (45) and a particulate matter separation chamber (46), is releasably coupled to the inside of a vial cover (30). The processing assembly (40) remains with the cover (30) when the vial is opened to insert a specimen therein. Application of an external force to the cover (30) detaches the processing assembly from the cover so that it remains in the vial, for access by automated or manual laboratory equipment, when the cover (30) is discarded. Sealing and drainage features help prevent cross-contamination during specimen processing.

The invention discloses a multifunctional portable experiment device, which mainly solves the problem that laboratory equipment cannot be widely applied as the laboratory equipment is precious and has a large size. The multifunctional portable experiment device comprises a signal generation module, a signal collection module, a universal meter module, a power supply module, a microprocessor control circuit and a communication drive circuit, wherein the microprocessor control circuit is connected with the signal generation module for generating two output analog signals; the microprocessor control circuit is connected with the signal collection module for collecting two input analog signals; the microprocessor control circuit is connected with the universal meter module for storing and processing data collected by the universal meter; the communication drive circuit is connected with the microprocessor control circuit for uploading processed data which are stored in the microprocessor control circuit to an upper computer and carrying out bidirectional communication; and the power supply module is connected with other modules for outputting direct-current stabilized voltage. According to the multifunctional portable experiment device disclosed by the invention, basic functions of instruments such as a signal source, an oscilloscope, a direct-current stabilized power supply and a universal meter can be realized.

This invention is a novel method for analysis of data that is produced by test equipment. The preferred embodiment is data produced by liquid chromatography tandem mass spectrometry (LC-MS/MS) equipment, using industry standard methods to generate the initial data from the test equipment. The invention is a method for processing of the data to promptly produce accurate, reliable, and meaningful data that can be used for critical decisions. The unique benefit of the method is to correct the multiple measurement and calculation errors that are inherent in the operation of laboratory equipment. Prior methods result in errors based on circumstances that are difficult to control, accuracy-related errors in machine measurements, and fundamental mathematical errors in the data processing software that used with the laboratory equipment. As an added benefit, this novel method allows comprehensive simultaneous measurement and calculation of correlation of any and all peptide pairs in a single measurement, with the capability to support repeated measurements with changed conditions over time. This novel method allows robust, detailed, and comprehensive measurements of peptide activity and function, which results in substantial improvements over prior methods in accuracy, reliability, and efficiency.

A method and a system for virtual design and evaluation of pharmaceutical formulation are provided. The invention discloses the method and the system for virtual design and evaluation of pharmaceutical preparation prescriptions, and the system mainly comprises a pre-prescription research module, a pharmaceutical prescription design and optimization module, a pharmaceutical preparation process design and optimization module, and a pharmaceutical prescription in-vivo prediction and evaluation module. The method and the system for virtual design and evaluation of pharmaceutical formulation predict the whole process of pharmaceutical formulation from four aspects of pharmaceutical pre-formulation research, formulation design, preparation process design and pharmacokinetics prediction in vivo.Compare with a conventional empirical drug prescription screening and preparation method in a traditional laboratory, the method and the system can accelerate the development of drug product, do not consume any laboratory equipment, complete the virtual design and evaluation of drug formulation prescription through a computer platform, shorten the drug development cycle and save the development cost of new drugs.