mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging system for housing a sterile product comprising: a secondary packaging holder having a primary packaging holder receiving portion at a first end , the secondary packaging holder being configured to securely and irreversibly hold a portion of a primary packaging holder comprising a necked cylinder that is configured to hold a sterile product; and a tertiary packaging holder having a base and having a secondary packaging holder receiving portion at an opposing end , the tertiary packaging holder being configured to receive and securely and irreversibly hold the secondary packaging holder , wherein the tertiary packaging holder includes at least one substantially planar wall extending from the base to the opposing end of the tertiary packaging holder , the substantially planar wall having an exterior surface configured to affix an identifying label thereto, wherein the secondary packaging holder has shoulders configured to irreversibly snap fit at the neck of the primary packaging holder . a secondary packaging holder having a primary packaging holder receiving portion at a first end , the secondary packaging holder being configured to securely and irreversibly hold a portion of a primary packaging holder comprising a necked cylinder that is configured to hold a sterile product; and a tertiary packaging holder having a base and having a secondary packaging holder receiving portion at an opposing end , the tertiary packaging holder being configured to receive and securely and irreversibly hold the secondary packaging holder , wherein the tertiary packaging holder includes at least one substantially planar wall extending from the base to the opposing end of the tertiary packaging holder , the substantially planar wall having an exterior surface configured to affix an identifying label thereto, wherein the secondary packaging holder has shoulders configured to irreversibly snap fit at the neck of the primary packaging holder .
Method for installing or servicing a wind turbine including at least a rotor blade having a plurality of aerodynamic devices for influencing the airflow flowing from the leading edge of the rotor blade of the wind turbine to the trailing edge of the rotor blade , the method comprising the steps of: - activating the aerodynamic devices , - installing the rotor blade or performing a service on the wind turbine, - deactivating the aerodynamic devices , wherein the phase of activating the aerodynamic devices is performed before or during the phase of installing the rotor blade or performing a service on the wind turbine and the phase of deactivating the aerodynamic devices is performed during or after the phase of installing the rotor blade or performing a service on the wind turbine. - activating the aerodynamic devices , - installing the rotor blade or performing a service on the wind turbine, - deactivating the aerodynamic devices ,
A diamond having a set of main surfaces, and including a line-shaped or lattice-shaped optical distortion in a surface of each of the main surfaces when observed with light vertically passing through the set of main surfaces wherein, in a region of more than or equal to 90% of the surface of the main surface including the optical distortion, an average value of phase differences of the optical distortion is less than 30 nm per 100 μm in thickness measured at a wavelength of 543 nm, wherein the optical distortion accounts for a region of more than or equal to 20% of the surface of the main surface including the optical distortion, wherein the optical distortion is substantially parallel to the <100> direction.
A method of forming a lithium (Li)-based film, the method comprising: a step (S210) of supplying a Li source material into a reaction chamber in which a substrate is disposed; and a step (S230) of supplying phosphor (P) and oxygen (O) source materials and a nitrogen (N) source material into the reaction chamber, wherein the supplying of the Li source material into the reaction chamber and the supplying of the P and O source materials and the N source material into the reaction chamber are performed with a time interval; characterised by a step (S240) of continuing to supply phosphor (P) and oxygen (O) source materials and a nitrogen (N) source material into the reaction chamber while generating plasma in the reaction chamber to form a Li-based film on the substrate from the Li, P, O, and N source materials. a step (S210) of supplying a Li source material into a reaction chamber in which a substrate is disposed; and a step (S230) of supplying phosphor (P) and oxygen (O) source materials and a nitrogen (N) source material into the reaction chamber, wherein the supplying of the Li source material into the reaction chamber and the supplying of the P and O source materials and the N source material into the reaction chamber are performed with a time interval; characterised by a step (S240) of continuing to supply phosphor (P) and oxygen (O) source materials and a nitrogen (N) source material into the reaction chamber while generating plasma in the reaction chamber to form a Li-based film on the substrate from the Li, P, O, and N source materials.
A process for the manufacturing of high density polyethylene, comprising • performing first polymerization to form a first slurry in a first reactor (R1); • transferring at least part of the first slurry from the first reactor (R1) into a second reactor (R2); • performing second polymerization to form a second slurry in the second reactor (R2); • transferring at least part of the second slurry from the second reactor (R2) to a third reactor (R3); • performing post processing to the second slurry to form a third slurry in the third reactor (R3), wherein the third reactor is fed only with the second slurry for the post processing and wherein the post processing is performed at a temperature of at most 60 °C, preferably 40-60 °C, more preferably 40-50 °C, most preferably 40-45 °C and wherein the post processing is performed at a pressure of 1.3 -4.0 bar (0.3-3.0 barg): • transferring the third slurry to a separating means (S3); • separating the slurry into solid polymer product and liquids in the separating means (S3); • transferring at least part of the liquids to a purification means (S4) and • separating wax from said at least part of the liquids in the purification means (S4). • performing first polymerization to form a first slurry in a first reactor (R1); • transferring at least part of the first slurry from the first reactor (R1) into a second reactor (R2); • performing second polymerization to form a second slurry in the second reactor (R2); • transferring at least part of the second slurry from the second reactor (R2) to a third reactor (R3); • performing post processing to the second slurry to form a third slurry in the third reactor (R3), wherein the third reactor is fed only with the second slurry for the post processing and wherein the post processing is performed at a temperature of at most 60 °C, preferably 40-60 °C, more preferably 40-50 °C, most preferably 40-45 °C and wherein the post processing is performed at a pressure of 1.3 -4.0 bar (0.3-3.0 barg): • transferring the third slurry to a separating means (S3); • separating the slurry into solid polymer product and liquids in the separating means (S3); • transferring at least part of the liquids to a purification means (S4) and • separating wax from said at least part of the liquids in the purification means (S4).
Heating and drying system for a building, wherein the system comprises a heating circulation cycle and concrete structures, such as base floors which give away heat for the heating of the building and which concrete structures also require drying, wherein the system is configured such that heated air is directed to the concrete structures to be dried and/or heated such that the moisture has a chance to move from the concrete structure to be dried to be part of the heated air, and the system further comprising pipes and being configured such that the heated air is directed to the concrete structures through the pipes which are located in the concrete structures, wherein the walls of the pipes comprise holes , wherein the moisture can move from the concrete structure into the pipes and to the heating circulation cycle, the system further comprising a heating device configured to heat the heated air, characterized in that the system is configured to reduce the moisture included in the recirculated heated air by directing all or a part of the recirculated heated air outwards the heating circulation cycle and by taking new air from outside of the heating circulation cycle to replace the removed air, the system is further configured to direct the recirculated heated air to be directed outwards the heating circulation cycle to be combustion air of the heating device , and the system further comprising a cover being wrapped at least around the part of the pipes which comprises the holes , said cover being configured to coat or cover at least the part of the pipes which comprises the holes and configured to let air through at least regarding the part of the pipes which comprises the holes . the system is configured to reduce the moisture included in the recirculated heated air by directing all or a part of the recirculated heated air outwards the heating circulation cycle and by taking new air from outside of the heating circulation cycle to replace the removed air, the system is further configured to direct the recirculated heated air to be directed outwards the heating circulation cycle to be combustion air of the heating device , and the system further comprising a cover being wrapped at least around the part of the pipes which comprises the holes , said cover being configured to coat or cover at least the part of the pipes which comprises the holes and configured to let air through at least regarding the part of the pipes which comprises the holes .
An intervertebral implant comprising: an upper endplate comprising a first upper endplate portion and a second upper endplate portion; a lower endplate comprising a first lower endplate portion and a second lower endplate portion; an actuator assembly disposed between the upper endplate and the lower endplate , the actuator assembly being configured to movingly engage front ends of the upper endplate and the lower endplate and also movingly engage rear ends of the upper endplate and the lower endplate , wherein the intervertebral implant is configured to first transition from a collapsed configuration having a first width and a first height to a laterally expanded configuration having a second width and then transition to a vertically expanded configuration having a second height, characterized in that the actuator assembly comprises: a front sloped actuator assembly in moving engagement with front ramped surfaces of the first upper endplate portion and the second upper endplate portion; and a rear sloped actuator assembly in moving engagement with rear ramped surfaces of the first upper endplate portion and the second upper endplate portion. an upper endplate comprising a first upper endplate portion and a second upper endplate portion; a lower endplate comprising a first lower endplate portion and a second lower endplate portion; an actuator assembly disposed between the upper endplate and the lower endplate , the actuator assembly being configured to movingly engage front ends of the upper endplate and the lower endplate and also movingly engage rear ends of the upper endplate and the lower endplate , wherein the intervertebral implant is configured to first transition from a collapsed configuration having a first width and a first height to a laterally expanded configuration having a second width and then transition to a vertically expanded configuration having a second height, characterized in that the actuator assembly comprises: a front sloped actuator assembly in moving engagement with front ramped surfaces of the first upper endplate portion and the second upper endplate portion; and a rear sloped actuator assembly in moving engagement with rear ramped surfaces of the first upper endplate portion and the second upper endplate portion. a front sloped actuator assembly in moving engagement with front ramped surfaces of the first upper endplate portion and the second upper endplate portion; and a rear sloped actuator assembly in moving engagement with rear ramped surfaces of the first upper endplate portion and the second upper endplate portion.
Polymerizable composition comprising a) at least one cyclic amide, b) from 2.8 to 3.5% by weight, preferably from 2.9 to 3.1% by weight, of at least one blocked polyisocyanate, and c) from 1.2 to 1.4% by weight of at least one catalyst for the polymerization of the cyclic amide, where the ratio by weight of components b) to c) is from 2.0 to 2.9, preferably from 2.2 to 2.8 and the % by weight data are always based on the entirety of components a) to c). a) at least one cyclic amide, b) from 2.8 to 3.5% by weight, preferably from 2.9 to 3.1% by weight, of at least one blocked polyisocyanate, and c) from 1.2 to 1.4% by weight of at least one catalyst for the polymerization of the cyclic amide,
A circuit module comprising: a semiconductor light emitting element ; a lighting control circuit configured to control lighting of the semiconductor light emitting element; a first heat radiating member on which the lighting control circuit is mounted; a second heat radiating member separated from the first heat radiating member and having a mounting surface on which the semiconductor light emitting element is mounted; and a connecting mechanism having a connecting portion , for example in form of a housing , that connects the first heat radiating member and the second heat radiating member together, characterized in that the first heat radiating member and the second heat radiating member are thermally separated from each other, and the connecting mechanism having a conductive portion that transmits a signal from the lighting control circuit to the semiconductor light emitting element, wherein the connecting portion is formed of a material having a coefficient of thermal conductivity lower than those of the first heat radiating member and the second heat radiating member . a semiconductor light emitting element ; a lighting control circuit configured to control lighting of the semiconductor light emitting element; a first heat radiating member on which the lighting control circuit is mounted; a second heat radiating member separated from the first heat radiating member and having a mounting surface on which the semiconductor light emitting element is mounted; and a connecting mechanism having a connecting portion , for example in form of a housing , that connects the first heat radiating member and the second heat radiating member together, characterized in that the first heat radiating member and the second heat radiating member are thermally separated from each other, and the connecting mechanism having a conductive portion that transmits a signal from the lighting control circuit to the semiconductor light emitting element, wherein the connecting portion is formed of a material having a coefficient of thermal conductivity lower than those of the first heat radiating member and the second heat radiating member .
A composition of CD8+ T cells enriched for a population of long-lived human memory CD8+ T cells that have high surface expression of CD161 and IL-18Rα, wherein the long-lived human memory CD8 + T cells that have high surface expression of CD161 and IL-18Rα: make up at least 30% of the total CD8+ T cells in the composition; proliferate in response to IL-7, IL-15 or both IL-7 and IL-15; and are genetically modified to express an engineered immunoreceptor. make up at least 30% of the total CD8+ T cells in the composition; proliferate in response to IL-7, IL-15 or both IL-7 and IL-15; and are genetically modified to express an engineered immunoreceptor.
Use of implanted ions to decrease the infrared reflectance in the wavelength range between 800 nm and 3 μm of a substrate for transmitting infrared light, wherein a. the ions are selected from a mixture of single charge and multicharge ions of the ions of N, O, He, Ne, Ar, or Kr; and b. are implanted in the substrate with a dosage comprised between 10 16 ions/cm 2 and 2 × 10 17 ions/cm 2 , and an acceleration voltage AV comprised between 5.5 kV and 450 kV, and wherein the substrate is chosen among the substrates of soda-lime-silica glass, alumino-silicate glass and boro-silicate glass. a. the ions are selected from a mixture of single charge and multicharge ions of the ions of N, O, He, Ne, Ar, or Kr; and b. are implanted in the substrate with a dosage comprised between 10 16 ions/cm 2 and 2 × 10 17 ions/cm 2 , and an acceleration voltage AV comprised between 5.5 kV and 450 kV, and
A method of producing a hydrolysed pectic polysaccharide isolate that is enriched in rhamnogalacturonan-I, said method comprising the steps of: • providing a pectin-rich substrate selected from pomace, aqueous extract of pomace, oil cake, aqueous extract of oil cake and combinations thereof, said pectin-rich substrate being obtained from one or more crops selected from fruit, carrot, olive, peas, sugar beet, chicory, soy, sunflower, rapeseed and maize without the use of organic solvent, said pectin-rich substrate containing at least 3% by weight of dry matter of pectic polysaccharides having a backbone consisting of galacturonic acid residues and rhamnose residues, the rhamnose residues being contained in a backbone consisting of galacturonic acid residues and rhamnose residues, said rhamnose residues being contained in alpha(1→4)-galacturonic-alpha(1→2)-rhamnose residues; • subjecting the pectin-rich substrate to enzymatic treatment to partially hydrolyse the pectic polysaccharides, said enzymatic treatment comprising the use of one or more pectinases selected from pectin lyase (EC 4.2.2.10), pectate lyase (EC 4.2.2.2), endo-polygalacturonase (EC 3.2.1.15), exopolygalacturonase (EC 3.2.1.67 and EC 3.2.1.82); • subjecting the partially hydrolysed pectic polysaccharides to ultrafiltration using an ultrafiltration membrane having a molecular weight cut-off in the range of 5 to 100 kDa; and • recovering the ultrafiltration retentate. • providing a pectin-rich substrate selected from pomace, aqueous extract of pomace, oil cake, aqueous extract of oil cake and combinations thereof, said pectin-rich substrate being obtained from one or more crops selected from fruit, carrot, olive, peas, sugar beet, chicory, soy, sunflower, rapeseed and maize without the use of organic solvent, said pectin-rich substrate containing at least 3% by weight of dry matter of pectic polysaccharides having a backbone consisting of galacturonic acid residues and rhamnose residues, the rhamnose residues being contained in a backbone consisting of galacturonic acid residues and rhamnose residues, said rhamnose residues being contained in alpha(1→4)-galacturonic-alpha(1→2)-rhamnose residues; • subjecting the pectin-rich substrate to enzymatic treatment to partially hydrolyse the pectic polysaccharides, said enzymatic treatment comprising the use of one or more pectinases selected from pectin lyase (EC 4.2.2.10), pectate lyase (EC 4.2.2.2), endo-polygalacturonase (EC 3.2.1.15), exopolygalacturonase (EC 3.2.1.67 and EC 3.2.1.82); • subjecting the partially hydrolysed pectic polysaccharides to ultrafiltration using an ultrafiltration membrane having a molecular weight cut-off in the range of 5 to 100 kDa; and • recovering the ultrafiltration retentate.
An injection molding machine comprising: an injection unit configured to fill a plurality of cavity spaces of a mold unit with a molding material; and a controller configured to control the injection unit , wherein an nth molding product which is obtained by sequentially moving a molding product between n cavity spaces of the plurality of cavity spaces to perform insert molding is molded as a finished product, the n being a natural number of 2 or more, wherein the controller has a setting storage unit in which a setting of a control to fill the plurality of cavity spaces with the molding material is stored, wherein the setting storage unit is configured to store a setting of a control of filling a predetermined cavity space of the plurality of cavity spaces with the molding material and of not filling a cavity space other than the predetermined cavity space with the molding material, and characterized in that the controller is configured to monitor the number of stocks of an mth molding product, and select a setting of a control stored in the setting storage unit based on the number of stocks of the mth molding product, the m being a natural number of 1 or more and n-1 or less. an injection unit configured to fill a plurality of cavity spaces of a mold unit with a molding material; and a controller configured to control the injection unit , wherein an nth molding product which is obtained by sequentially moving a molding product between n cavity spaces of the plurality of cavity spaces to perform insert molding is molded as a finished product, the n being a natural number of 2 or more, wherein the controller has a setting storage unit in which a setting of a control to fill the plurality of cavity spaces with the molding material is stored, wherein the setting storage unit is configured to store a setting of a control of filling a predetermined cavity space of the plurality of cavity spaces with the molding material and of not filling a cavity space other than the predetermined cavity space with the molding material, and characterized in that the controller is configured to monitor the number of stocks of an mth molding product, and select a setting of a control stored in the setting storage unit based on the number of stocks of the mth molding product, the m being a natural number of 1 or more and n-1 or less.