mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerant flow path switching unit provided between a heat source unit and a utilization unit and configured to switch a refrigerant flow in the utilization unit, the refrigerant flow path switching unit comprising: a flow path switching valve (46A to 46D, 47A to 47D); a case housing the flow path switching valve; and an electric component box housing an electric component configured to control the flow path switching valve, wherein a box attachment part to which the electric component box is attached is provided on a plurality of surfaces of the case, and a heat source-side connection nozzle is provided, characterized in that the heat source-side connection nozzle is disposed laterally to the box attachment part , the case includes a first surface , a second surface , a third surface and a fourth surface , the first surface and the second surface face each other, the third surface and the fourth surface face each other, the box attachment part is provided on each of the first surface , the second surface and the third surface , the heat source-side connection nozzle is provided on the first surface and the second surface , a utilization-side connection nozzle (101A to 101D, 111A to 111D) is provided on the fourth surface , and the heat source-side connection nozzle is disposed closer to the fourth surface than the box attachment part on the first surface and the second surface . a flow path switching valve (46A to 46D, 47A to 47D); a case housing the flow path switching valve; and an electric component box housing an electric component configured to control the flow path switching valve, wherein a box attachment part to which the electric component box is attached is provided on a plurality of surfaces of the case, and a heat source-side connection nozzle is provided, characterized in that the heat source-side connection nozzle is disposed laterally to the box attachment part , the case includes a first surface , a second surface , a third surface and a fourth surface , the first surface and the second surface face each other, the third surface and the fourth surface face each other, the box attachment part is provided on each of the first surface , the second surface and the third surface , the heat source-side connection nozzle is provided on the first surface and the second surface , a utilization-side connection nozzle (101A to 101D, 111A to 111D) is provided on the fourth surface , and the heat source-side connection nozzle is disposed closer to the fourth surface than the box attachment part on the first surface and the second surface .
A position estimating lighting system for being applied in a building or premise comprising a plurality of lighting devices for being distributed around the building or premise, each of the lighting devices comprising a static module wirelessly connected to at least one gateway device, characterized in that it comprises: - a server, connected to the gateway device, - a plurality of mobile terminals wirelessly connected to adjacent static modules and/or to the gateway device; wherein for each mobile terminal, one of the adjacent static modules and/or the gateway device calculates position information of the mobile terminal and delivers the position information to the server by the gateway device, and the server collects the position information of the plurality of mobile terminals and modulates illumination of the plural lighting devices based on the position information, wherein the gateway device comprises gate wireless controller, network module and a memory, and each of the lighting devices comprises a static wireless controller for building a mesh network, a light controller to control illumination thereof and a memory, each of the mobile terminals comprises mobile wireless controller for building the mesh network, a mobile terminal processor and an interacting LCD, the mobile terminals are registered in the server before joining the mesh network. - a server, connected to the gateway device, - a plurality of mobile terminals wirelessly connected to adjacent static modules and/or to the gateway device;
A combination of at least vitamin A and an antioxidant agent comprising or consisting of a mixture of carnosic acid and carnosol, the carnosic acid content of said antioxidant agent being 50-98% by weight relative to the weight of said antioxidant agent.
A method of coating a substrate in a single zone of a MSVD coater wherein the zone includes at least two bays, comprising: a. running a first bay of a zone including a first target in metal mode to deposit a metal layer on the substrate, wherein the first target is selected from gold, copper, silver, titanium, zirconium, hafnium, yttrium and mixtures and alloys thereof; and b. running a second bay of a zone including a second target in transition or oxide mode to deposit an oxide layer on the substrate, wherein the second target is selected from titanium, silicon, zinc, aluminum, and combinations thereof, and wherein running the second bay includes pumping oxygen as a reactive gas into the zone. a. running a first bay of a zone including a first target in metal mode to deposit a metal layer on the substrate, wherein the first target is selected from gold, copper, silver, titanium, zirconium, hafnium, yttrium and mixtures and alloys thereof; and b. running a second bay of a zone including a second target in transition or oxide mode to deposit an oxide layer on the substrate, wherein the second target is selected from titanium, silicon, zinc, aluminum, and combinations thereof, and wherein running the second bay includes pumping oxygen as a reactive gas into the zone.
A sealed electrical apparatus comprising a casing constituted by a first part and a second part ; said first part being sealingly associable with said second part ; said electrical apparatus being characterized in that it comprises a retractable locking means comprising a closure member ; said closure member defining at least two conditions: an open condition and a closed condition; in said closed condition said closure member engages said second part and is integrated within the contour of said casing defined by said first part joined to said second part ; said electrical apparatus being characterized in that said closure member is hinged to said first part by means of a pair of elastic members ; each of said elastic members having a first end engaged in a respective hinge formed in said first part and a second end elastically engageable with an abutment portion of said closure member when said closure member is in said closed condition.
An arrangement for generating vibration according to an electrical input signal, the arrangement comprising: a phase ; a surface supported with respect to the base by at least one supporting member; a first permanent magnet arrangement coupled with the surface and comprising a first permanent magnet ; a frame coupled with the base and comprising magnetic material; a second permanent magnet configured to be arranged between the first permanent magnet and the frame and to be coupled with the frame, one or more portion of the frame extending at least in one direction over an edge area of the second permanent magnet, wherein the first permanent magnet is between the second permanent magnet and the surface; the second permanent magnet further configured to face, at a distance, the first permanent magnet such that a magnetic interaction between the first permanent magnet and the second permanent magnet causes a first force to the surface, wherein the frame is configured to be magnetized by the same polarity of the second permanent magnet as polarity of a pole of the second permanent magnet coupled with the frame in order to cause magnetic interaction between said one or more portion of the frame and the first permanent magnet arrangement in order to cause a second force to the surface having an opposite direction compared with the first force; and a coil coupled with an input for receiving an electrical input signal, the coil configured to generate a magnetic field according to the electrical input signal in order to displace the surface to generate vibration. a phase ; a surface supported with respect to the base by at least one supporting member; a first permanent magnet arrangement coupled with the surface and comprising a first permanent magnet ; a frame coupled with the base and comprising magnetic material; a second permanent magnet configured to be arranged between the first permanent magnet and the frame and to be coupled with the frame, one or more portion of the frame extending at least in one direction over an edge area of the second permanent magnet, wherein the first permanent magnet is between the second permanent magnet and the surface; the second permanent magnet further configured to face, at a distance, the first permanent magnet such that a magnetic interaction between the first permanent magnet and the second permanent magnet causes a first force to the surface, wherein the frame is configured to be magnetized by the same polarity of the second permanent magnet as polarity of a pole of the second permanent magnet coupled with the frame in order to cause magnetic interaction between said one or more portion of the frame and the first permanent magnet arrangement in order to cause a second force to the surface having an opposite direction compared with the first force; and a coil coupled with an input for receiving an electrical input signal, the coil configured to generate a magnetic field according to the electrical input signal in order to displace the surface to generate vibration.
A flash separator comprising a. an inlet located at the upper part of the flash separator for feeding a reaction solution into the flash separator, b. optionally the inlet is circumvented with an outlet pipe, c. a first outlet within the lower part of the flash separator, and d. a second outlet within the upper part of the flash separator wherein the inlet has a generally cylindrical wall characterised in that the generally cylindrical wall is perforated with multiple holes having the size of from 15 μm to 1500 μm. a. an inlet located at the upper part of the flash separator for feeding a reaction solution into the flash separator, b. optionally the inlet is circumvented with an outlet pipe, c. a first outlet within the lower part of the flash separator, and d. a second outlet within the upper part of the flash separator
A light emitting device comprising: a light emitting element having a semiconductor layer , a transparent substrate and two electrodes disposed on and connected to the semiconductor layer ; two electrically conductive members respectively directly or through a die-bonding member connected to the corresponding electrodes a reflective member applied so as to expose at least a portion of a side surface and a top surface of the transparent substrate , and so as to cover the side surfaces of the electrodes , a side surface of the semiconductor layer and the side surfaces of the electrically conductive members ; and a light transmissive member covering the top surface and the side surface of the transparent substrate and an upper surface and the side surfaces of the light emitting element , wherein said upper surface is opposite to the surface where the electrodes are disposed, wherein the lower surface of the electrically conductive members are exposed to the outside of the light emitting device and constitute a portion of the outer surface to the light emitting device, and wherein the reflective member is extendendly disposed on the lower portion of the light emitting device so as to be exposed at the side surfaces of the light emitting device. a light emitting element having a semiconductor layer , a transparent substrate and two electrodes disposed on and connected to the semiconductor layer ; two electrically conductive members respectively directly or through a die-bonding member connected to the corresponding electrodes a reflective member applied so as to expose at least a portion of a side surface and a top surface of the transparent substrate , and so as to cover the side surfaces of the electrodes , a side surface of the semiconductor layer and the side surfaces of the electrically conductive members ; and a light transmissive member covering the top surface and the side surface of the transparent substrate and an upper surface and the side surfaces of the light emitting element , wherein said upper surface is opposite to the surface where the electrodes are disposed, wherein the lower surface of the electrically conductive members are exposed to the outside of the light emitting device and constitute a portion of the outer surface to the light emitting device, and wherein the reflective member is extendendly disposed on the lower portion of the light emitting device so as to be exposed at the side surfaces of the light emitting device.
A catalysed filter for filtering particulate matter from exhaust gas emitted from a positive ignition internal combustion engine, which filter comprising a porous substrate, which is a wall-flow filter having a total substrate length and having inlet surfaces and outlet surfaces, wherein the inlet surfaces are separated from the outlet surfaces by a porous structure containing pores of a first mean pore size, wherein the wall-flow filter is coated with a three-way catalyst washcoat composition comprising a combination of precious metals selected from the group consisting of (i) platinum and rhodium; (ii) palladium and rhodium; and (iii) platinum, palladium and rhodium, supported on a high surface area oxide, and an oxygen storage component, wherein the porous structure of the washcoated wall-flow filter contains pores of a second mean pore size, wherein the second mean pore size is less than the first mean pore size, which three-way catalyst washcoat being axially arranged on the wall-flow filter as a first zone comprising the inlet surfaces of a first substrate length less than the total substrate length and a second zone comprising the outlet surfaces of a second substrate length less than the total substrate length, wherein the sum of the substrate length in the first zone and the substrate length in the second zone ≥ 110%, wherein the substrate length in the first zone is the same as or different from that of the second zone and wherein: (i) a washcoat loading in the first zone > second zone; or (ii) both a washcoat loading and a total precious metal loading in the first zone > second zone. (i) a washcoat loading in the first zone > second zone; or (ii) both a washcoat loading and a total precious metal loading in the first zone > second zone.
A method for producing a retinal progenitor cell, comprising a first step of subjecting pluripotent stem cells to floating culture in a serum-free medium to form an aggregate of pluripotent stem cells, and a second step of subjecting the aggregate formed in step to floating culture in a serum-free medium or serum-containing medium each being free of a substance that can enhance signal transduction mediated by Sonic hedgehog and containing a substance that can enhance signal transduction mediated by BMP, thereby obtaining an aggregate containing retinal progenitor cells. a first step of subjecting pluripotent stem cells to floating culture in a serum-free medium to form an aggregate of pluripotent stem cells, and a second step of subjecting the aggregate formed in step to floating culture in a serum-free medium or serum-containing medium each being free of a substance that can enhance signal transduction mediated by Sonic hedgehog and containing a substance that can enhance signal transduction mediated by BMP, thereby obtaining an aggregate containing retinal progenitor cells.
Method for producing an osteotropic bone replacement material from a starting material which substantially has portlandite, calcium oxide, aragonite; calcite and/or apatite, in particular hydroxyl apatite, wherein portlandite, calcium oxide, aragonite and/or calcite are used in the form of burnt, unburnt and/or chemically treated biogenic skeletons or wherein as apatite vertebrate bones after pyrolytic or chemical maceration are used, wherein the starting material is introduced into an autoclave with a strontium, fluorine and/or gallium source, wherein when using a starting material which substantially has portlandite, calcium oxide, aragonite; calcite a phosphate source is introduced, wherein H 2 O is added into the autoclave as part of a solvent, wherein the pH value in the autoclave is set to a range above 7, wherein the closed and filled autoclave is heated for at least 1 hour and then cooled, and wherein subsequently the content of the autoclave is cleaned from residues of the phosphorus, strontium, fluorine and/or gallium source. wherein portlandite, calcium oxide, aragonite and/or calcite are used in the form of burnt, unburnt and/or chemically treated biogenic skeletons or wherein as apatite vertebrate bones after pyrolytic or chemical maceration are used, wherein when using a starting material which substantially has portlandite, calcium oxide, aragonite; calcite a phosphate source is introduced, wherein H 2 O is added into the autoclave as part of a solvent, wherein the pH value in the autoclave is set to a range above 7, wherein the closed and filled autoclave is heated for at least 1 hour and then cooled, and wherein subsequently the content of the autoclave is cleaned from residues of the phosphorus, strontium, fluorine and/or gallium source.
An organic light emitting diode, comprising a substrate, an anode, a hole transport layer, a light emitting layer, an electron transport layer, and a cathode, wherein, the light emitting layer comprises a first phosphorescent light emitting layer, a first isolation layer, a blue fluorescent light emitting layer, a second isolation layer, and a second phosphorescent light emitting layer, which are stacked in that order along a direction from the anode to the cathode; wherein the first isolation layer is a layer of material capable of conducting holes and blocking electrons and made of 4,4',4"-tris(carbazol-9-yl) triphenylamine (TCTA), and the second isolation layer is a layer of material capable of conducting electrons and blocking holes and made of tris-(8-hydroxyquinoline) aluminum (AlQ); and wherein the first isolation layer has a thickness of 8nm, and the second isolation layer has a thickness of 5nm.
A hot water unit fluid supply control system comprising: a hot water unit ; a rainwater tank ; a potable water source ; a switching device coupled to the hot water unit , the rainwater tank and the potable water source , the switching device configured to selectively switch between a first state, which allows fluid communication between the hot water unit and the rainwater tank , and a second state, which allows fluid communication between the hot water unit and the potable water source ; one or more sensors and a control unit configured to: receive fluid characteristic information associated with fluid in the hot water unit from said one or more sensors ; and cause the switching device to assume the first or second state based on a comparison of a fluid characteristic parameter of the fluid characteristic information with requirements of the hot water unit , wherein the control unit is configured to activate a pump of the rainwater tank to cause a pressure change in fluid supply from the rainwater tank and thereby cause the switching device to assume the first state and to deactivate a pump of the rainwater tank to cause the switching device to assume the second state, wherein at least one of the one or more sensors is configured to detect fluid temperature in the hot water unit , and wherein the fluid characteristic parameter comprises a temperature value. a hot water unit ; a rainwater tank ; a potable water source ; a switching device coupled to the hot water unit , the rainwater tank and the potable water source , the switching device configured to selectively switch between a first state, which allows fluid communication between the hot water unit and the rainwater tank , and a second state, which allows fluid communication between the hot water unit and the potable water source ; one or more sensors and a control unit configured to: receive fluid characteristic information associated with fluid in the hot water unit from said one or more sensors ; and cause the switching device to assume the first or second state based on a comparison of a fluid characteristic parameter of the fluid characteristic information with requirements of the hot water unit , wherein the control unit is configured to activate a pump of the rainwater tank to cause a pressure change in fluid supply from the rainwater tank and thereby cause the switching device to assume the first state and to deactivate a pump of the rainwater tank to cause the switching device to assume the second state, wherein at least one of the one or more sensors is configured to detect fluid temperature in the hot water unit , and wherein the fluid characteristic parameter comprises a temperature value.
A system comprising: a guide plate comprising perforations arranged in a configuration representing a harvest pattern, and configured to be positioned at a target site including at least one of a donor site and a recipient site; a device comprising a scalpet array that includes a plurality of scalpets, wherein the plurality of scalpets is configured to align with the harvest pattern, wherein the plurality of scalpets is configured to incise skin pixels and generate skin defects at the target site according to the harvest pattern; and an adherent substrate configured to capture the incised skin pixels at the target site. a guide plate comprising perforations arranged in a configuration representing a harvest pattern, and configured to be positioned at a target site including at least one of a donor site and a recipient site; a device comprising a scalpet array that includes a plurality of scalpets, wherein the plurality of scalpets is configured to align with the harvest pattern, wherein the plurality of scalpets is configured to incise skin pixels and generate skin defects at the target site according to the harvest pattern; and an adherent substrate configured to capture the incised skin pixels at the target site.
In vitro use of secretoglobin, family 1D, member 2 as a marker for pancreatic cancer and intraductal papillary mucinous neoplasms.