443 results about "Cell layer" patented technology

The invention relates to the technical field of solar cell module packaging, in particular to a packaging structure for a perovskite-back contact crystalline silicon laminated solar cell and a preparation method of the packaging structure. The packaging structure comprises a front light conversion glass layer, a perovskite top cell layer, an infrared light-transmitting adhesive film layer, a back contact crystal silicon bottom cell layer, an adhesive film layer and a packaging bottom plate which are arranged in sequence, and butyl rubber surrounding the perovskite top cell layer, the infrared light-transmitting adhesive film layer, the back contact crystal silicon bottom cell layer and the adhesive film layer is arranged between the front light conversion glass layer and the packaging bottom plate, and the near infrared transmittance of 780 nm to 1100 nm in the infrared transparent adhesive film layer is 93% to 100%. According to the packaging structure based on the front light conversion glass layer and the infrared light-transmitting adhesive film layer, regulation and control of short-wave ultraviolet and near-infrared spectrums are considered, and the photoelectric property and reliability of the perovskite-crystalline silicon four-terminal laminated device are remarkably improved.

The invention discloses an anti-subfissure soft photovoltaic module and a preparation method thereof, and the method comprises the steps: enabling a backboard, a high-cut-off packaging adhesive film, a first anti-subfissure film, a cell layer, a second anti-subfissure film, a high-transmittance packaging adhesive film, and a transparent packaging front layer to be sequentially stacked from bottom to top, and carrying out the lamination and integrated molding of the anti-subfissure soft photovoltaic module. Compared with the traditional packaging adhesive film as the packaging material of the solar cell, the unsaturated polyester pre-impregnated glass fiber is used as the packaging material of the solar cell, so that the strength and the flexibility are higher, the solar cell can be better protected, and the subfissure resistance of the soft photovoltaic module is improved.

The invention discloses an application of a populus tomentosa IPT5b gene in creating a high-yield shade-tolerant populus germplasm, belongs to forest breeding, and is characterized in that a phloem specific promoter CLE41b is utilized to express a cytokinin synthetic gene IPT5b in populus tomentosa, and an overexpression material of which cambium activity and xylem development are remarkably promoted is created. After shading treatment, the number of cambium cell layers and the number of xylem cell layers of CLE41bpro: IPT5b are remarkably higher than those of wild type CLE41bpro: IPT5b, and the phenotype increases the content of cytokinin (CK) in stems, so that the wood yield of trees under the shading condition can be increased. According to the method, a high-yield and shade-tolerant new poplar variety is created in a manner of finely regulating and controlling the content of CK in the phloem of the poplar. The gene source and scientific reference are provided for improving and improving the yield and shade tolerance of other trees, and the gene has important application value in the field of forest tree gene engineering.

The present invention belongs to the field of genetic engineering and biotechnology, and relates to the screening, construction and application of a modified type of AAV-8 serotype for gene targeting and expression. The modified type of the AAV-8 serotype of the present invention inserts 10 amino acid sequences between the 590th amino acid and the 591st amino acid of the AAV-8 serotype capsid protein sequence as shown in SEQ ID NO.2, wherein the 3rd to 9th amino acids are amino acid sequences obtained by screening. The modified serotype of the present invention targets each layer of the retina, and the fluorescence effect after infection is stronger, and it can be clearly and intuitively observed that the exogenous gene can be efficiently expressed in each layer of the retina of the targeted tissue, including the retinal ganglion cell layer, the inner nuclear layer, the outer nuclear layer, the photoreceptor cell layer and the retinal pigment epithelial cell layer, and has better and more targeted tissue expression than the wild-type serotype when the same amount of virus is used.

The invention relates to (i) a photovoltaic cell, comprising: an absorber layer comprising a perovskite material; and an ultrathin hole-transport layer; (ii) a photovoltaic cell comprising an absorber layer comprising perovskite material, a 5 hole transport layer and a protective layer located between the absorber layer and the hole transport layer, the protective layer having a valence band with an energy level that is between the energy levels of the valence bands of the absorber layer and the hole transport layer; and (iii) a photovoltaic cell comprising a barrier layer located between inner cell layers and an electrode and configured to suppress 0 diffusion of metal from the electrode into the inner layers. Also disclosed are methods of fabricating said photovoltaic cells and methods of fabricating a doped precursor for use in fabricating a photovoltaic cell.

The invention relates to a single cell data quality control processing method. The method comprises the following steps: 1) calculating a quality control index according to single cell data to be processed; identifying outliers in the single cell data to be processed according to the quality control indexes and / or the cell type composition to obtain a sample level quality control analysis result; 2) identifying empty liquid drops and double-cell data in the single-cell data to be processed; then identifying low-quality cell data in the to-be-processed single cell data to obtain a cell level quality control analysis result; 3) calculating and evaluating the average expression level, the expression standardization variance and the detection rate in all cells of each feature in the to-be-processed single cell data to obtain a feature level quality control analysis result; and 4) evaluating the batch effect of the to-be-processed single cell data to obtain a batch effect evaluation analysis result. Compared with other existing process tools, the single-cell multi-omics quality control process tool is more complete, more flexible and more friendly, and provides the most comprehensive and powerful quality control workflow for single-cell multi-omics analysis.

The invention discloses a group III chloride ex-situ doped cadmium telluride thin film solar cell and a preparation method thereof, and the cadmium telluride thin film solar cell comprises a substrate layer, a transparent conductive oxide thin film layer, a high-resistance buffer layer, a cell window layer, a cell layer, a back contact layer and a back electrode layer which are sequentially arranged from bottom to top. The cell layer comprises an absorption layer and a IIICl3 layer coated on the upper surface of the cell window layer, and IIICl3 is chloride of the III main group element. According to the III-group chloride ex-situ doping method provided by the invention, the III-group chloride can be dissolved in an organic solution, room-temperature solution deposition is allowed, III-group cations are easy to diffuse at a relatively low annealing temperature, and a complex annealing process is not needed to activate a dopant; through a simple solution process and low-temperature activation, efficient doping of the CdTe absorption layer is effectively realized, and the open-circuit voltage and the overall photoelectric conversion efficiency of the cell are remarkably improved.

A user equipment (UE) is configured to determine a first system synchronization block (SSB) having a subcarrier spacing (SCS) transmitted by a first cell having a first Physical Cell Identity (PCI) and a second SSB having the SCS transmitted by a second cell having a second PCI different from the first PCI are adjacent and perform inter-cell Layer 1 reference signal received power (L1-RSRP) measurements on the first and second SSBs based on a proximity rule.

The invention relates to a preparation method of a 3D printing high-density cell tubular vascular graft. The preparation method comprises the following steps: sucking a supernatant obtained by centrifuging a cell suspension away and only remaining bottom pure cells; the preparation method comprises the following steps: uniformly stirring and mixing OMA, pig gelatin and an LAP photoinitiator in a Hank's solution to form a hydrogel precursor solution; extruding the pure cells and the hydrogel precursor solution from a three-axis nozzle by using printing equipment, and immersing the pure cells and the hydrogel precursor solution into a calcium chloride solution; lyase is added to degrade the hydrogel precursor solution, the hydrogel precursor solution is completely degraded, and an independent single-layer pipeline structure with only a remaining pure cell layer is obtained. The invention provides a method for manufacturing high-density pure-cell lumen constructs to mimic native blood vessels by using a self-made microfluidic coaxial 3D bioprinting device. And after the support hydrogel on the inner layer and the outer layer is removed, a single-layer tubular structure of high-density MOVAs only limited to pure cells is obtained. The cells in the pure cell vascular constructs exhibit good cell viability and cell function.

The invention discloses a photovoltaic module and a preparation method thereof, and a photovoltaic system, the photovoltaic module comprises a laminated member, a frame and an insulating layer, the frame wraps at least part of the circumferential edge of the laminated member, the insulating layer is arranged between the frame and the laminated member, the laminated member is internally provided with a cell layer, the frame comprises a first side part and a second side part which are connected with each other, and the first side part and the second side part are connected with each other. The first side part at least partially covers the peripheral edge of the back surface of the laminated piece, and the second side part surrounds and wraps part or all of the circumferential side wall of the laminated piece; the insulating layer comprises a first insulating part and a second insulating part, the first insulating part is arranged between the first side part and the back surface of the laminated piece, and the second insulating part is arranged between the second side part and the circumferential side wall of the laminated piece; and furthermore, by setting the ranges of the first creepage adjustment coefficient and the second creepage adjustment coefficient of the photovoltaic module, the bonding performance between the frame and the laminated piece and the insulating performance between the battery piece layer and the frame are considered.

The invention belongs to the field of photovoltaic modules, and discloses a perovskite crystalline silicon laminated photovoltaic module and a preparation method thereof.The photovoltaic module comprises front plate glass, and a top cell perovskite layer, a first adhesive film layer, a bottom cell crystalline silicon cell layer, a second adhesive film layer and back plate glass are sequentially laid on one side of the front plate glass; the edges of the top cell perovskite layer, the first adhesive film layer, the bottom cell crystalline silicon cell layer and the second adhesive film layer are wrapped and sealed through a composite frame, the composite frame comprises a substrate with the wall thickness of 0.1-2mm, the surface of the substrate is provided with an anodic oxide layer with the thickness of 4-6mu m, and the surface of the anodic oxide layer is covered with a polyimide layer with the thickness of 30-1mm. The laminated photovoltaic module adopts the composite frame to replace the existing butyl rubber for sealing, so that the metalized edge sealing is perfectly fused into the low-temperature laminating process, the sealing performance is superior to that of the butyl rubber, and the service life of the laminated photovoltaic module is prolonged.

The invention relates to the field of microneedle electrodes, in particular to a microneedle chip module, an adapter and a culture monitoring device.According to the microneedle chip module, a plurality of microneedle arrays are integrated on the surface of an electrode substrate, tissue slices are pierced through microneedle electrodes, and therefore target cells located in an inner cell layer are recorded or stimulated; according to the culture monitoring device, a probe and a back-stage equipment interface are respectively integrated inside and outside a shell through an adapter, the back-stage equipment interface and a microneedle array are connected through the probe, so that the functions of protecting and quickly connecting back-stage equipment are provided for a microneedle chip module, and a culture dish is integrated on the surface of an electrode substrate through a culture monitoring device; nutrient substances and heat are provided for the culture dish through the peristaltic pump and the heating table, so that the embodiment of the invention combines the advantages of low cost, easiness in penetrating into tissues and high biocompatibility of a rigid needle-shaped electrode.

The utility model provides a battery piece and a photovoltaic assembly, and the battery piece comprises a battery body which is provided with a first edge extending along a first direction and a second edge extending along a second direction orthogonal to the first direction; the plurality of first electrodes are arranged on two opposite surfaces of the battery body, and the plurality of first electrodes extend along a first direction and are arranged at equal intervals along a second direction; a plurality of groups of first bonding pads, wherein the plurality of first bonding pads in the same group are arranged at equal intervals along the second direction; wherein the number of the first electrodes on at least one surface of the battery body is an odd number, so that a part of the first electrodes pass through the center lines of the first bonding pads on the same surface. The photovoltaic module comprises a battery piece layer which comprises a plurality of battery pieces which are arranged along rows and / or columns; and the sealing layer is laminated on the surface of the battery piece layer.

The present application provides a high-power semiconductor light-emitting chip with longitudinal carrier modulation and a manufacturing method therefor. The high-power semiconductor light-emitting chip with longitudinal carrier modulation includes: an active layer; a first semiconductor cell layer disposed on the active layer, wherein the first semiconductor cell layer includes a contact doped layer, the first semiconductor cell layer includes a plurality of current blocking regions that are disposed at least in the contact doped layer and distributed in a slow-axis direction, and the parts of the first semiconductor cell layer between neighboring current blocking regions act as current injection regions, wherein a current density function J(z) of current density in the active layer satisfies: J(z)=(Jop−J0)·f(z)+J0;f⁡(z)=Np(z)1L·∫L0Np(z)⁢dz;wherein J0=αN0+bN02+cN03,N0=Ntr⁢exp⁡(αi+amΓ⁢g0);and an average resistivity r(z) of corresponding current injection regions and current blocking regions at any position in the cavity-length direction satisfiesr⁡(z)=r0·1f⁡(z)+J0 / (Jop-J0),where r0 is a coefficient of r(z).

Disclosed in the present invention is a building-integrated photovoltaics system, comprising a back plate layer, a photovoltaic cell layer, and a facing layer from inside to outside. The facing layer comprises, in percentage by weight, 30-40% of a hydraulic material, 30-50% of natural calcium carbonate, 7-16% of an acrylic emulsion, 5-12% of glass fiber powder, 0.1-0.5% of a silane coupling agent, 0.1-0.5% of an acrylic light diffusing agent, and 5-20% of water. In the present invention, the building-integrated photovoltaics system is mounted on a building external wall, a building roof and a roof extension, can implement solar power generation, and is integrated with a building; external colors and patterns match the building; and the function of solar power generation is achieved while the aesthetics of the building is not damaged.

Provided is a method for cell measurement, and a device. The method is applicable to a terminal device. The method includes: performing neighbor cell layer 1 (L1) measurement based on an L1 measurement configuration. The device includes a processor, wherein the processor, when loading and running a computer program, is caused to perform the method for cell measurement.

An interconnect for electrically connecting cells of an electrochemical cell stack is disclosed. The interconnect comprises a first side and a second side; the first side is adapted to face a cell layer comprising an electrochemically active cell region, and a portion of the first side of the interconnect is provided with an electrically insulating layer.

The invention relates to a cell layer (100) for an electrochemical cell stack (10, 60), in particular a fuel cell stack (10) or an electrolysis cell stack (60), at least comprising a cell frame (120) for radially (Rr) liquid-tightening an electrochemically active region in the cell stack (10, 60), and a membrane (130) arranged within the cell frame (120) for an electrochemical function of the cell stack (10, 60), wherein a fixation of the membrane (130) on / in the cell frame (120) is designed as a substantially liquid-tight direct bond (101) of the membrane (130) with the cell frame (120).

The invention discloses a light reinforced perovskite solar cell module and a production process thereof, and relates to the technical field of solar cells, and the light reinforced perovskite solar cell module structurally comprises a high-transmittance epoxy resin adhesive protection layer, a substrate, a perovskite cell layer, an adhesive film layer and a back plate which are sequentially stacked. The peripheries of the substrate, the perovskite cell layer, the adhesive film layer and the backboard are sealed. According to the perovskite solar cell module, the epoxy resin adhesive protection layer is arranged on the light incident surface of the perovskite solar cell module, so that the inner-layer substrate can be effectively protected, heat transfer can be effectively blocked by utilizing the heat insulation characteristic of the epoxy resin adhesive protection layer, and the purposes of reducing the overall temperature of the module and relieving the thermal decomposition of perovskite are achieved; therefore, the service life of the perovskite solar cell module is prolonged.

The invention provides a thin film photovoltaic module, a laminated photovoltaic module and power generation equipment, and relates to the field of photovoltaic technology. The thin film photovoltaic module comprises a substrate, a battery pack and a bypass structure, the battery pack is arranged on the substrate, and the battery pack comprises a plurality of sub-batteries which are sequentially connected in series. The sub-battery comprises a first electrode, a battery layer and a second electrode which are sequentially stacked, the first electrode is in contact with the substrate, the first electrode comprises a first sub-electrode and a second sub-electrode which are arranged at an interval, and the second electrode is in contact with the first sub-electrode. The bypass structure is used for being connected with the battery pack in parallel, in the bypass structure and the battery pack which are connected in parallel, the bypass structure is electrically connected with the second electrode of the sub-battery located at one end of the battery pack and the second sub-electrode of the sub-battery located at the other end of the battery pack, and the bypass structure is conducted under the condition that one sub-battery in the battery pack is shielded. And reverse bias protection can be realized for a plurality of sub-batteries in the battery pack through the bypass structure, so that the processing cost can be reduced.

The invention provides a four-terminal perovskite crystal silicon laminated battery assembly and a preparation method thereof. The four-terminal perovskite crystalline silicon laminated battery assembly comprises a perovskite battery layer and a crystalline silicon battery layer which are laminated, the perovskite cell layer comprises a plurality of perovskite cell units, any two perovskite cell units are connected in parallel, and the orthographic projection areas of any two perovskite cell units on the crystalline silicon cell layer are equal; the crystalline silicon cell layer comprises a crystalline silicon cell string, and the crystalline silicon cell string is connected in parallel with any perovskite cell unit. According to the invention, the problem in the prior art that the number of modules is difficult to select in string design in a photovoltaic power station due to current mismatch of the four-terminal perovskite crystal silicon cell laminated module is solved.

The embodiment of the invention provides a flexible perovskite photovoltaic device and a preparation method thereof. The flexible perovskite photovoltaic device comprises a perovskite photovoltaic cell layer; the water and oxygen barrier film layer at least covers the two sides of the perovskite photovoltaic cell layer, and a first water and oxygen barrier film and a second water and oxygen barrier film are formed on the two sides of the perovskite photovoltaic cell layer respectively; the elastic packaging layer coats the water-oxygen barrier film layer; the Young modulus of the above layer structure satisfies the following relation: the perovskite photovoltaic cell layer > the water oxygen barrier film layer > the elastic packaging layer. The thickness of the elastic packaging layer is larger than the thickness of the water-oxygen barrier film layer and larger than the thickness of the perovskite photovoltaic cell layer. According to the flexible perovskite photovoltaic device and the preparation method thereof provided by the embodiment of the invention, the appearance of the device or the surface of the water-oxygen barrier film is not damaged when the flexible perovskite photovoltaic device is bent for use, the photoelectric conversion efficiency is ensured, and the service life of the device is prolonged.

The invention discloses a laminated cell and a preparation method thereof. The laminated cell comprises a crystalline silicon bottom cell and a perovskite cell layer, the crystalline silicon bottom battery comprises a silicon substrate, and a first tunneling passivation structure is arranged on the front face of the silicon substrate. First areas and second areas are alternately arranged on the back face of the silicon substrate in the first direction. A second tunneling passivation structure, a passivation layer and a first electrode are sequentially arranged on the first region in the direction far away from the back surface of the silicon substrate; the perovskite cell layer comprises a perovskite layer, the front surface of the perovskite layer is provided with a third area, the third area is provided with a top cell electrode, and the projections of the first area and the third area along the thickness direction of the cell are partially overlapped. According to the invention, passivation contact of the emitter is realized by adopting the P-type doped polycrystalline silicon layer for the crystalline silicon bottom cell, compounding with slurry can be reduced, and good metal-semiconductor contact can be realized through the heavily doped P-type doped polycrystalline silicon layer.

The embodiments of the present application provide a cell interaction analysis method and device, an electronic device and a storage medium, which belong to the field of cell communication technology. The cell interaction analysis method includes: obtaining the spatial transcriptome data of the target slice, and clustering the cells in the target slice according to the spatial transcriptome data to obtain multiple cell groups; calculating the proximity values ​​between different cell groups, and determining the target cell group pairs in the multiple cell groups based on the proximity values; determining the target ligand receptor pairs in the target cell group according to the gene expression levels of different ligand receptor pairs in the target cell group pairs; performing cell interaction analysis based on the target ligand receptor pairs and the target cell group pairs to obtain interaction analysis results. The embodiments of the present application can perform cell interaction analysis at the single-cell level based on spatial transcriptome data.

The utility model relates to the technical field of stem cell culture facilities, and discloses a biological stem cell culture dish which comprises a base, a fixing ring is fixedly connected to the inner wall of the top of the base, containing columns are fixedly connected to the inner walls of the four sides of the fixing ring, and limiting plates are slidably connected to the interiors of the containing columns. A first spring is arranged in the containing column, a sliding rod is fixedly connected to one side of the limiting plate, a clamping block is fixedly connected to one end of the sliding rod, a culture vessel is arranged on the inner wall of the top of the base, a cover plate is rotatably connected to the rear end of the top of the base, and a sealing ring is fixedly connected to the front end of the cover plate. The inner wall of the front end of the cover plate is fixedly connected with a sealing assembly. According to the utility model, the position of the culture vessel is fixed, the non-uniformity of a cell layer caused by the movement or vibration of the culture vessel in the culture process is prevented, and the repeatability and the accuracy of an experimental result are prevented from being influenced.

A device for mechanically disassembling a cell stack (16) comprising a plurality of adhering cell layers (12, 14), in particular an electrochemical cell, is proposed. The device (10) comprises a housing (22) which forms a receiving chamber (24) for receiving the cell stack (16) to be disassembled, and a plurality of rigid disassembly elements (26) which are arranged projecting into the receiving chamber (24) on at least one lateral housing wall (28), in particular two opposing lateral housing walls (28) or all lateral housing walls (28) of the housing (22), and are further configured to engage between the cell layers (12, 14) and force them apart upon impact with the cell stack (16) received, thereby disassembling the cell stack (16).

The invention provides a side light gain photovoltaic (power generation) barrel (type battery assembly). The side light gain photovoltaic (power generation) barrel (type battery assembly) comprises an upper wall with a double-sided photovoltaic battery layer and a side wall with light transmission; the upper wall and the side wall are combined to form a photovoltaic cylinder; sunlight which directly irradiates the side wall penetrates through the side wall and irradiates the back face of the double-face photovoltaic cell layer to generate electricity. The overall power generation efficiency is improved, and the cost per kilowatt-hour is reduced.

The utility model relates to the technical field of solar cell panels, in particular to a light-weight photovoltaic assembly, which comprises a light-weight frame assembly, and a transparent cover plate, a front packaging adhesive film, a cell layer, a back packaging adhesive film and a back plate which are sequentially arranged in the light-weight frame assembly, wherein the back packaging adhesive film is matched with the front packaging adhesive film to package the cell layer; the waterproof coating is coated on the peripheral side of the packaged battery piece layer; the flexible waterproof layer is arranged on the outer side of the waterproof coating and is used for wrapping the battery piece layer; the waterproof support frame is arranged between the flexible waterproof layer and the light-weight frame assembly; the waterproof performance of the battery piece is enhanced by coating the waterproof coating; the flexible waterproof layer further improves the sealing effect, and the flexible waterproof layer can generate elastic deformation when wrapping the battery piece layer; the waterproof supporting frame is located between the flexible waterproof layer and the light-weight frame assembly, the two ends of the waterproof supporting frame abut against the transparent cover plate and the back plate respectively, the supporting effect is achieved, and the situation that the battery piece layer is cracked due to stress in the installation process is avoided.

A user equipment (UE) is configured to receive a dynamic time division duplexing (TDD) configuration comprising uplink (UL) transmissions for a serving cell having a first Physical Cell Identity (PCI), wherein the UL transmissions are scheduled for a same symbol as a reference signal (RS) for inter-cell Layer 1 reference signal received power (L1-RSRP) measurements transmitted by a second cell having a second PCI different from the first PCI and perform, during the scheduled symbol, one of (i) transmitting a UL signal to the serving cell or (ii) measuring the RS for the second cell, wherein the performing is based on a restriction.

The utility model discloses a battery component, a curved photovoltaic component and a photovoltaic building surface. The battery assembly comprises a plurality of battery pieces and a bus bar. The battery pieces are used for converting light energy into electric energy, and the plurality of battery pieces are electrically and physically connected through the interconnection strips to form a battery layer with a curved section. And the bus bars are electrically connected with the interconnection strips at the end parts of the battery layers and are used for leading out electric signals of the battery layers. The battery assembly comprises a covering area and a non-covering area, the covering area corresponds to at least part of the surface of at least one of the interconnection strip and the bus bar, and the color presented by the covering area is consistent with that presented by the non-covering area. In the battery assembly, the covering area corresponds to at least part of the surface of at least one of the interconnection strip and the bus bar, and the color presented by the covering area is consistent with the color presented by the non-covering area, so that the color presented by the whole battery assembly is consistent. According to the battery assembly, the overall consistency is good, and the attractiveness of the battery assembly is good.