362 results about "Cell bodies" patented technology

Provided is a secondary battery of an assemble-type structure, comprising: a cell body including an electrode assembly of cathode / separator / anode sealed therein; and a cap assembly including a protection circuit electrically connected to the cell body so as to control overcharge, overdischarge and overcurrent of the battery and a cap housing covering an upper part of the battery, and being detachably coupled to the cell body. In accordance with the present invention, since the cap assembly including the protection circuit, cap housing and the like is assembled detachably from the cell body and electrically connected to and also can be physically firmly fixed to one another, provided are effects capable of greatly reducing the manufacturing process steps of the battery, and solving all the problems associated with use of battery cases and insert injection molding. Therefore, the present invention can reduce battery production costs and rejection rate, facilitate greater ease of re-working upon occurrence of rejection in particular components and realize more efficient automation of the battery manufacturing process.

Embodiments of the invention are directed to a device that combines microfabrication, microfluidic, and surface micropatterning techniques to create a multi-compartment neuronal culturing device that has application across a number of different neuroscience uses. Devices configured in accordance with the invention allow directed growth of neurites and isolation of neurites from their cell bodies. The device can use hydrostatic pressure to isolate insults to one compartment and, thus, expose localized areas of neurons to insults. Due to the high resistance of the microgrooves for fluid transport, insults are contained in the neuritic compartment without appreciable leakage into the somal compartment for a certain period of time (e.g., over 15 h).

A mattress or another type of support surface which allows for discrete manipulation of the pressure on a supported body. The present invention includes resilient fluid cells having a spring bias, grouped to allow adjustable dynamic control of the pressure exerted on various locations of the body support. Each of the fluid cells has a multiple port air distribution system, either integral to the fluid cell or attached to the fluid cell. The multiple port air distribution system includes ports and allows for the control of intake flow, outflow, and sound. A harnessing system is attached to the ports of the multiple port air distribution system and interconnects the fluid cells in a pattern desired by the user. The harnessing system controls the directions and flow volume of air into the fluid cells creating selected zones. The harnessing configuration is customizable to a particular patient. The fluid cells are held together by a casing. The casing supports, houses, and prevents movement of the fluid cells and the harnessing system.

An energy storage cell pack cradle assembly for holding multiple rows of energy storage cells oriented along a dominant axis of vibration includes a first cradle member including a plurality of energy storage cell body supporting structures including respective holes; a second cradle member including a plurality of energy storage cell body supporting structures including respective holes; and one or more fasteners connecting the first cradle member and the second cradle member together. The energy storage cell body supporting structures are configured to structurally support the energy storage cells, with the energy storage cells oriented along a dominant axis of vibration, by energy storage cell bodies of the energy storage cells with respective electrically conductive terminals extending through the respective holes without structural support of the electrically conductive terminals by the cradle members.

An improved method is provided herein of managing information that typically relates to a project, process, or workflow. The information is classified within various hierarchical levels of categories, subcategories and their lowest level data elements and is organized within an electronic graph in a corresponding hierarchical sequence. The graph comprises what is termed as “cell bodies” in the form of graphical objects. These graphical objects represent each of the categories, subcategories and data elements and are aligned against each other in various orthogonally stacked configurations where the cell bodies consist of one or more geometric shapes, symbols, characters and their respective features such as color, in a tight grouping, which together, represent several variables of a single data set record. Each cell body may be a cluster of one or more such graphical components.

A battery pack with at least two electrochemical cells, lithium ion cells in particular, has each cell including a positive pole and a negative pole on the end face of the particular cell body, the poles of the cells being electrically connected in series and / or in parallel. A cell connector for electrically connecting the cells is provided on at least two cells, on the end face on the same side relative to their position in the battery pack, the cell connector connecting one pole of the connected cells and extending to a contact region of a circuit board; the cell bodies of the cells are positioned parallel to each other, and the end faces of the cell bodies are located in the same plane.

An integrated circuit having both floating body cells and logic devices fabricated in a bulk silicon substrate is described. The floating body cells have electrically floating bodies formed by oxidizing a lower portion of the cell bodies to electrically isolate them from the substrate.

Disclosed herewith is a multi-plane cell switch fabric system in which each switching unit functions asynchronously with others. The system executes distribution / restoration operations without lowering the switching capacity to reorder cells that arrive in random order from a plurality of switches just as they were in original flows and packets respectively with a small hardware capacity. In the system, the distribution unit divides each variable length packet addressed to the same destination into fixed length cells and sends those divided cells by a unit of integer multiple of the number of switches. On the other hand, the reordering unit, while holding cells that arrive in random order from each switching unit (switching units 1 to M) in a receive buffer, separates only the header information from each cell and holds the header information in a retry queue. The reordering unit, upon finding the header information of a head cell of a flow in an ordering check at the time of receiving or in a retry check in the retry queue, extracts the corresponding cell bodies from the receive buffer to restore the original order of those cells in the subject packet.

The invention is a high-intension gas cell and its facture. The gas cell comprises the cell body, the cell head and the air gate mouth. The cell body is composed of the inner sleeving layer and plural layers of curtain cloth. The cell head and the cell body are jointed together to form the conoid shape, the cell head is solidified with the air gate mouth. The facture is to longitudinal arrange the curtain cloth, adhere the two sides and roll them to barrel shape to be the inner sleeve. The demolishing inner pressure of the gas cell is higher than 1.11 MPa, and the cell wall is sealed well. The invention has a wide range of appliance.

A battery cell arrangement having a battery cell which is in the form of a film cell and includes a flat cell body with two end faces, a flexible cell rim surrounding the cell body, and two contact sections arranged on a rim side of the battery cell. The battery cell arrangement further has a frame arrangement which includes a first frame element and a second frame element which frames the cell body on all sides on the rim. At least one vent opening is provided on a side of the frame arrangement which faces away from the end faces of the cell body, in order to allow fluid, in particular gas, to emerge from the battery cell arrangement in the event of damage.

An optical system provides a lens cell having a generally cylindrical lens cell body and an optical lens system therein. The lens cell body has a lens cell central longitudinal axis and a lens cell optical axis, eccentrically offset from the lens cell central longitudinal axis. A sleeve has a generally cylindrical sleeve body, an outer surface with a first longitudinal axis, and an inner surface with a second longitudinal axis, eccentrically offset from the first longitudinal axis. The lens cell is inserted into the sleeve. A housing has a generally cylindrical body into which the sleeve is at least partially inserted. The lens cell and the sleeve are rotated relative to each other and to the housing such that the lens cell optical axis is aligned in a desired location. After the lens cell optical axis is aligned in the desired location, the lens cell is fixedly connected to the sleeve and the sleeve is connected to the housing to prevent rotation of the sleeve relative to the housing.

The invention proposes a neuromorphic chip simulator. The simulator comprises a plurality of processing cores and a plurality of routers. Each processing core comprises an input buffer area, a processing module, a dendritic calculation unit, a cell body calculation unit and an output buffer area. The dendritic calculation unit comprises a memory array and N simulated neurons; each simulated neuron comprises M axon inputs; and the dendritic calculation unit performs multiplication on the axon input of each position on each simulated neuron and a synaptic weight of a corresponding position, accumulates multiplication results, and combines accumulated results obtained by all the simulated neurons as output data of the dendritic calculation unit. The cell body calculation unit comprises N simulated neurons; each simulated neuron performs accumulation on a result obtained by multiplication and addition in the dendritic calculation unit and a numerical value accumulated by the previous simulated neuron; and pulses are generated when an accumulated numerical value exceeds a preset threshold. The output buffer area stores pulse-containing data packets. According to the simulator, the quality and efficiency of a neuromorphic chip design process can be ensured and designers can design neuromorphic chips with higher quality more quickly.

A technique facilitates the monitoring of thermodynamic properties of reservoir fluids. The technique utilizes a modular sensor assembly designed to evaluate a sample of a hydrocarbon-containing fluid within a cell body. A variety of sensors may be selectively placed into communication with a sample chamber within the cell body to evaluate the sample at potentially high pressures and temperatures. The sensors may comprise a density-viscosity sensor located in-situ to efficiently measure both the density and viscosity of the sample as a function of pressure and temperature. Other sensors, such as an optic sensor, may also be positioned to measure parameters of the sample while the sample is retained in the sample chamber.

Support or padding including expandable cells whose cell body in its resting state seen in transverse section is individually delimited by at least two concentric perimeters, the walls of the cell in its resting state rejoining each of the perimeters characterized by the fact that the portion of the wall of the cell rejoining two points located each on one of the concentric perimeters 6 and 7 can be strictly in a straight line during its centripetal path, if between two other points 28 at the entrance of the successive fissures, slits or clefts 4 located on the external perimeter 7 the path followed takes at least for a certain length an aspect strictly of a straight line or flat part 29, one of the last two points 28 being the same as the first one located on the external perimeter 7 at the junction or exit of a fissure; all of the consecutive points of this flat part 29 being further away or distal in relation to the center 24 of the cell than the other points, outside of the flat part 29, constitutive of the sheath 7 on its path between two points 28 located at the junction of the successive fissures 4.

A drilling fluid test device including a cell body having a pressurization inlet configured to allow for pressurization of the cell body, a fluid inlet configured to provide a test fluid, a filtrate outlet configured to discharge a filtrate, and a fluid outlet configured to discharge the fluid. The device also including a filter medium disposed in the cell body and a cleaning system disposed in the cell body and configured to clean the filter medium. Additionally, a method of testing a drilling fluid including injecting a drilling fluid into an automated testing cell, the automated testing cell having a filter medium. Furthermore, pressurizing the automated testing cell, forming a filter cake on the filter medium, and separating the drilling fluid into a filtrate and a residual drilling fluid. Additionally, transferring the filtrate to a filtrate collection vessel and determining a volume of filtrate in the filtrate collection vessel.

An apparatus and method for the synthesis and treatment of electrocatalyst particles in batch or continuous fashion is provided. In one embodiment, the apparatus is comprised of a three-electrode cell which includes a cell body electrode, a reference electrode, and a counter electrode. A slurry containing non-noble metal ions and a plurality of particles is introduced into the apparatus. During operation an electrical potential is applied and the slurry is stirred. When particles in the slurry collide with the electrically conductive region of the cell body electrode the transferred charge facilitates deposition of an adlayer of the desired metal. In this manner film growth can commence on a large number of particles simultaneously. After the non-noble metal ions are deposited onto the particles, they are displaced by noble-metal ions by galvanic displacement. This process is especially suitable for forming catalytically active layers on nanoparticles for use in energy conversion devices.

A method of ablating the sympathetic ganglionic cell bodies in the thoracic paravertebral space is provided. The method includes ablating the sympathetic ganglionic cell bodies in the thoracic paravertebral space through a posterior, non-invasive or minimally invasive approach for the treatment of resistant hypertension. The ablation may additionally involve various permutations of the gray and white rami and the dorsal root ganglion in addition to the sympathetic chain ganglionic cell bodies, all located in the triangular paravertebral space.

The invention provides a brain-like computing chip and computing equipment, the brain-like computing chip comprises a many-core system composed of one or more functional cores, and the functional cores perform data transmission through a network-on-chip; each functional core comprises at least one neuron processor used for calculating a plurality of neuron models; and at least one coprocessor which is coupled with the neuron processor and is used for executing an integral operation and / or a multiply-add operation; Wherein the neuron processor can call the coprocessor to execute multiplicationand addition type operation. The brain-like computing chip provided by the invention is used for efficiently realizing various neural morphology algorithms, especially for computing characteristics ofan SNN-rich model, and has synaptic computing with high computing density and cell body computing with high flexibility requirements.

The invention relates to an in-situ infrared spectrum cell which comprises a closed cell body, wherein an infrared injecting port and an infrared ejecting port are oppositely formed in the cell body and are used for enabling infrared light to be transmitted in and penetrate through the cell body; a lighting port and a sample setting port are oppositely formed in the cell body further; the lighting port is used for enabling the light to be transmitted into the cell body and irradiated to a sample to be detected; a packaging structural body which is used for sealing the sample setting port is further arranged at the sample setting port. The packaging structural body further comprises a heating element and a temperature measuring element, wherein the heating element is used for directly heating the sample to be detected, and the temperature measuring element is used for collecting the temperature of the sample to be detected.

The invention relates to an in-situ Raman light electrochemical cell by employing a TiO2NTs / Ti sheet shape electrode and an application thereof. The in-situ Raman light electrochemical cell comprises a cell body, a top cover, a pedestal, a reference electrode switch port, a counter electrode and a TiO2NTs / Ti work electrode; the in-situ Raman light electrochemical cell employs a three-electrode system, the TiO2NTs / Ti electrode is taken as the work electrode, Pt filament is the counter electrode, Ag / AgCl electrode can be taken as a reference electrode, illumination of 365 wavelength can be provided on the work electrode, certain bias voltage is applied for photoelectrocatalysis degradation, a Raman light spectra of an organic matter under different reaction time enables in-situ acquisition by employing a microscopic confocal Raman spectrometer, and a degrading mechanism of the organic matter on the TiO2NTs / Ti electrode can be obtained by analysis of the Raman light spectra. Compared with prior art, the assembling is simple, liquid addition is simple, liquid layer thickness is easily controlled, and good effect can be generated on the practical research and application aspect.

The present invention provides automated methods for cell body extension analysis, software for carrying out such methods, and detection devices comprising such software.

A gas cell is provided for detection of trace gases via intracavity laser spectroscopy. The gas cell comprises a gas cell body having a long body axis, an interior hollow portion along the long body axis, and two end portions, each end portion having two opposed surfaces, one surface of each the end portion cut to an angle with respect to the long body axis and including a laser-transparent window on each face defining ends of the interior hollow portion. The angle is dependent on operating wavelength of the spectrometer and refractive index of the window material at the operating wavelength. Each end portion is provided with a gas line connection in the proximity of the opposed surface, one gas line for introducing a sample gas into the interior hollow portion and the other gas line for exhausting the sample gas from the interior portion. Further, a gas cell holder is provided for supporting and positioning the gas cell. The gas cell holder comprises: (a) front, back, top, and bottom surfaces for encompassing the gas cell; and (b) multiple means for providing multiple degrees-of-freedom movement of the gas cell. The combination of the gas cell and the gas cell holder provides a compact laser resonator cavity. The gas cell holder provides the gas cell with multiple degrees of freedom of adjustment and maintains the position of the gas cell after alignment.

A fluid analysis apparatus for containing and analyzing a fluid sample includes a cell body assembly having a plurality of distinct portions in fluid communication with one another and with the distinct portions being hydraulically sealed to one another through the use of one or more resilient gaskets interposed between adjacent ones of the plurality of distinct portions of the cell body assembly. The one or more resilient gaskets enable both hydraulic sealing of adjacent distinct portions, as well as fluid coupling and routing through the fluid analysis apparatus.

The invention relates to in-situ electrochemical spectral testing, and particularly relates to an in-situ electrochemical-Raman combined testing device for a non-aqueous system. The in-situ electrochemical-Raman combined testing device for the non-aqueous system can acquire the change information of structure and composition of a sulfur electrode in a charging and discharging process to facilitate deep understanding of the lithium storage mechanism and lithium storage property of a material and further to design and optimize the material. The in-situ electrochemical-Raman combined testing device comprises a metal cell body upper cover, an insulating non-conductive cell body lower cover, a work electrode binding post, a dual-O-shaped ring, a spring and a battery, wherein the middle part of the metal cell body upper cover is hollowed out; a piece of quartz glass serves as a window sheet; the metal cell body upper cover is connected with a work electrode of an electrochemical testing instrument through the work electrode binding post; a hollow cavity is kept inside the insulating non-conductive cell body lower cover; a spring serving as a counter electrode wire is arranged in the hollow cavity; the battery is arranged on the top of the spring; and the metal cell body upper cover and the insulating non-conductive cell body lower cover are sealed by the dual-O-shaped ring to form a closed electrolytic cell system.

The invention provides a preparation method of a porous implant filled with O-intersecting lines units. The preparation method comprises the following steps: drawing a three-dimensional model of the O-intersecting lines units, controlling the bore diameter, wall thickness and porosity of the three-dimensional model according to the given specific dimension so as to generate a unit structure cell body, carrying out array copying operation on the unit structure cell body, thus obtaining a space porous network body, introducing in a femoral three-dimensional surface model, scaling the model to reach the proportion actually needed, carrying out cutting and Boolean operation on the porous network body and the femoral three-dimensional surface, thus obtaining a porous main body part, drawing the femoral steam end and a bolt positioning hole part by utilizing three-dimensional modeling, combing the porous main body part to enable the porous main body part to form a single-output porous implant body, saving the single-output porous implant body into an output format file and transmitting the file to layering software, adding with a bottom surface support, printing the porous implant body by adopting a 3D printer, clearing a substrate plate, taking out the porous implant, carrying out sand blasting treatment on the porous implant, and packaging the porous implant. With the adoption of the preparation method, units which are regular and uniform and having no closure can be generated, and the stressing uniformity is guaranteed.

The invention discloses a carbon nanometer tube decorated by polyethyleneimine and a compound of plasmid DNA thereof. The plasmid DNA adopted in the invention comprises P53DNA, green fluorescent protein expression (JPC) and unmethylated oligomerization deoxynucleotide plasmid DNA. The carbon nanometer tube decorated by the polyethyleneimine and the compound of the plasmid DNA have the advantages of high transfection efficiency and less toxicity to cells; in particular, when the concentration is 30 g / ml, the transfection efficiency is larger than 90 percent, and the validity of the cells is larger than 80 percent. The carbon nanometer tube decorated by the polyethyleneimine and the compound of the plasmid DNA have wide application prospect during the process of preparing medicaments for remedying genes outside transfecting osteosarcoma cell bodies and in animal bodies; and the carbon nanometer tube decorated by the polyethylene imine / the plasmid DNA / an adriacin nanometer compound also have wide application during the process of preparing medicaments for restraining the growth of tumor.