This technology relates to ingong jineung gibanyi companion animal haengdong bunseog systeme gwanhan geoseuroseo, companion animalyi haengdongeul bunseoghagi wihan dayanghan jeonja apparatus mic sayongja danmale jeogyongdoel su issda. In particular, it concerns a material, structure, process, or device technology designed to improve performance, durability, stability, and practical applicability in the relevant field.
Conventional approaches may face issues such as bohojaga banryeo dongmulyi jinjeong sinhowa munje haengdongeul gubyeolhal su eobsneun munjereul haegyeolhayeo ohaewa jamjaejeogin haegyeolcaegi jiyeondoeneun geoseul haegyeolhagoja handa. To address this, this technology applies companion animalyi haengdongeul bunseoghago sayongjaege sangtae jeongboreul jegonghagi wihan jeonja apparatus, seobeo, mic sayongja danmalgireul pohamhanda as a core means and proposes a technical concept.
Accordingly, this technology can deliver bon balmyeongeun silsigan bunseog mic sangtae jeongboreul jegonghameurosseo bohojaga companion animaleseo munjega issneun haengdongeul ihaehago haegyeolhaneun neungryeogeul hyangsangsikinda, while also improving reproducibility, scalability, and process suitability in practical use. It may be utilized as a high-performance material, device, battery, sensor, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to misaengmul sepoyi sogyumo baeyangeul sayonghaneun peulraseukeueseo yeonsogjeogeuro gaseu gipaneul hyoyuljeogeuro gonggeubhagi wihan gaseu gonggeub joribcee gwanhan geosigo dayanghan misaengmul baeyang systeme jeogyongdoel su issda. In particular, it concerns a material, structure, process, or device technology designed to improve performance, durability, stability, and practical applicability in the relevant field.
Conventional approaches may face issues such as anjeongjeogin gaseu jeondaleul bangjihago misaengmul baeyangyi seongneungeul banghaehaneun jongraeyi peulraseukeu baeyang systemeseo gaseu gonggeubyi bihyoyuleul haegyeolhagoja handa. To address this, this technology applies hoejeon yunis, jusagi, byeonhwan yunis, gojeong yunis, peulraseukeu, mic anjeongjeogin gaseu jeondaleul wihan yeongyeol paipeureul pohamhanda as a core means and proposes a technical concept.
Accordingly, this technology can deliver bon balmyeongeun dayanghan misaengmul baeyang systemeseo misaengmul sepoe gaseu gijileul hyoyuljeogeuro gonggeubhameurosseo baeyang seongneungeul hyangsangsikinda, while also improving reproducibility, scalability, and process suitability in practical use. It may be utilized as a high-performance material, device, battery, sensor, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to lithium-sulfur battery and manufacturing method comprising seontaegjeogeuro kotingdoen ijungceung gujo metal carbide-tanso composite, pohamhaneun electrode, i. In particular, it concerns a materials, component, cell, or process technology designed to improve electrochemical performance, structural stability, and practical applicability in the relevant field.
Conventional approaches may suffer from performance limitations, side reactions, process complexity, durability issues, or restricted operating stability. To address this, this technology applies teugh seontaegjeogeu kotingdoeneun du ceung gujo geumsog kabaideu-tanso compositer including guseong applies th proposed configuration as a core means and proposes a technical concept.
Accordingly, this technology can improve performance, stability, reproducibility, and scalability, while also supporting practical deployment and process expansion. It may be utilized as a high-performance material, electrode, electrolyte, device, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to electrode, manufacturing method and iyonghan lithium-sulfur battery comprising metal oxide nanoparticle layer for lithium-sulfur battery. In particular, it concerns a materials, component, cell, or process technology designed to improve electrochemical performance, structural stability, and practical applicability in the relevant field.
Conventional approaches may suffer from performance limitations, side reactions, process complexity, durability issues, or restricted operating stability. To address this, this technology applies nopeun hwang roding bupgajneun electrod nopeun seongneung yujidoeneun rityum-hwang batteryr including guseong applies th proposed configuration as a core means and proposes a technical concept.
Accordingly, this technology can improve performance, stability, reproducibility, and scalability, while also supporting practical deployment and process expansion. It may be utilized as a high-performance material, electrode, electrolyte, device, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to a health pillow equipped with a seesaw mechanism and cushion supports on a base, providing optimal height for both back and side sleeping positions.
Conventional pillows have fixed heights, failing to provide proper support for the neck and cervical spine as sleeping positions change.
To address this, our technology uses a hinge-coupled seesaw mechanism and outer cushion supports to create a height tailored to the user's position, ensuring comfortable cervical spine support.
This technology relates to cathode, manufacturing method and lithium secondary battery comprising the same for yumug hwalseong composite lithium secondary battery. In particular, it concerns a materials, component, cell, or process technology designed to improve electrochemical performance, structural stability, and practical applicability in the relevant field.
Conventional approaches may suffer from performance limitations, side reactions, process complexity, durability issues, or restricted operating stability. To address this, this technology applies rityum ica jeonjiyong cathode current collector, dojeonja applies th proposed configuration as a core means and proposes a technical concept.
Accordingly, this technology can improve performance, stability, reproducibility, and scalability, while also supporting practical deployment and process expansion. It may be utilized as a high-performance material, electrode, electrolyte, device, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to saengcejeoghabseongi gaeseondoen organ-specific extracellular matrix mic iyi manufacturing methode gwanhan geosida. In particular, it concerns a material, structure, process, or device technology designed to improve performance, durability, stability, and practical applicability in the relevant field.
Conventional approaches may face issues such as gijon methode bihae gaeseondoen biocompatibilityeul gajneun organ-specific sepooe maeteurigseureul saengseonghaneun methode daehan pilyoseongeul haegyeolhagoja handa. To address this, this technology applies sepo oemembrane danbaegjileul pohamhaneun sanggi sepoyi jeobcagceung mic sepooe maeteurigseureul gajin gujoreul pohamhanda as a core means and proposes a technical concept.
Accordingly, this technology can deliver bon balmyeongeun gijonyi methode bihae majcumhyeong extracellular matrixyi saengcejeoghabseongeul hyangsangsikinda, while also improving reproducibility, scalability, and process suitability in practical use. It may be utilized as a high-performance material, device, battery, sensor, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to dib reoning gisule gicohayeo banryeo dongmuli jeonsonghaneun sinho, dasi malhae riteon silkeu, keompyuteoyi jinjeong sinho (Calming sinho), tongsineul jiweonhaneun danmal jangbi, mic jiweon systeme gwanhan geosida. In particular, it concerns a material, structure, process, or device technology designed to improve performance, durability, stability, and practical applicability in the relevant field.
Conventional approaches may face issues such as jeseuceo eoneoreul sayonghayeo boggwi silkeureul jeonghwaghage ihaehagi eoryeobgo, peonjiwa boggwi silkeu saiyi weonhwalhan tongsinyi bujogeul haegyeolhagoja handa. To address this, this technology applies sanggi imiji deiteo seteu, sanggi hagseub model yunis, mic sanggi aepeulrikeisyeon silhaeng paileul saengseonghagi wihan sanggi saengseong yuniseul pohamhanda as a core means and proposes a technical concept.
Accordingly, this technology can deliver bon balmyeongeun boggwi silkeuyi ihaereul hyangsangsikigo, poniwa boggwi silkeu saiyi weonhwalhan tongsineul hyangsangsikinda, while also improving reproducibility, scalability, and process suitability in practical use. It may be utilized as a high-performance material, device, battery, sensor, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to cathode active material and lithium-sulfur battery manufacturing method comprising the same for lithium-sulfur battery. In particular, it concerns a materials, component, cell, or process technology designed to improve electrochemical performance, structural stability, and practical applicability in the relevant field.
Conventional approaches may suffer from performance limitations, side reactions, process complexity, durability issues, or restricted operating stability. To address this, this technology applies cathod activ material, hwang weonja selrenol weonja eungjibc applies th proposed configuration as a core means and proposes a technical concept.
Accordingly, this technology can improve performance, stability, reproducibility, and scalability, while also supporting practical deployment and process expansion. It may be utilized as a high-performance material, electrode, electrolyte, device, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to danibja cathode manufacturing method for noculmyeon jeeo ganeunghan lithium-ion secondary battery. In particular, it concerns a materials, component, cell, or process technology designed to improve electrochemical performance, structural stability, and practical applicability in the relevant field.
Conventional approaches may suffer from performance limitations, side reactions, process complexity, durability issues, or restricted operating stability. To address this, this technology applies sangg anod jeongihwahagjeog seongneung applies th proposed configuration as a core means and proposes a technical concept.
Accordingly, this technology can improve performance, stability, reproducibility, and scalability, while also supporting practical deployment and process expansion. It may be utilized as a high-performance material, electrode, electrolyte, device, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
Fashion eyewear with screw-type length adjustment and detachable connectors
This technology features fashion eyewear equipped with detachable connectors for attaching fashion accessories to the frames surrounding the lenses, and a length-adjustment mechanism that uses a screw-fit system to adjust the temple length in increments.
Conventional eyewear often has fixed temple lengths, making it difficult to fit the wearer's head size, and limits the ability to create diverse fashion styles due to fixed design constraints.
By utilizing a screw-type length adjuster for the temples and detachable connectors for swapping fashion accessories, this technology can be applied to fashion eyewear to provide both a customized fit and versatile styling options.
Key Features
This technology relates to anode and aqueous zinc battery comprising the same coated with mof(metal-organic framework)-801 for aqueous zinc battery. In particular, it concerns a materials, component, cell, or process technology designed to improve electrochemical performance, structural stability, and practical applicability in the relevant field.
Conventional approaches may suffer from performance limitations, side reactions, process complexity, durability issues, or restricted operating stability. To address this, this technology applies ion seontaegjeogeu susonghag wiha jeeodoen gigong keuggajneun dagongseong kotingceung including guseong applies th proposed configuration as a core means and proposes a technical concept.
Accordingly, this technology can improve performance, stability, reproducibility, and scalability, while also supporting practical deployment and process expansion. It may be utilized as a high-performance material, electrode, electrolyte, device, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to electrolyte and lithium-sulfur battery comprising the same comprising etereugye yongmae for lithium-sulfur battery. In particular, it concerns a materials, component, cell, or process technology designed to improve electrochemical performance, structural stability, and practical applicability in the relevant field.
Conventional approaches may suffer from performance limitations, side reactions, process complexity, durability issues, or restricted operating stability. To address this, this technology applies rityumhwang jeonjiyong etereugy yongma applies th proposed configuration as a core means and proposes a technical concept.
Accordingly, this technology can improve performance, stability, reproducibility, and scalability, while also supporting practical deployment and process expansion. It may be utilized as a high-performance material, electrode, electrolyte, device, or manufacturing technology in related industries, and it is also favorable for follow-on commercialization and pilot validation.
Key Features:
This technology relates to a method for manufacturing high-coupling carbon nanotube current collectors derived from waste polymers for aluminum secondary battery anodes. In particular, it is a technology designed to enhance the performance, structural stability, and application efficiency of battery materials and electrode designs based on the carbon source of the carbon nanotube current collector.
In the case of secondary batteries using conventional carbonate/organic electrolytes, problems with significantly blocked ion transport during the formation of an aluminum oxide layer on the aluminum metal surface could lead to performance degradation, process complexity, lack of stability, or limitations on the scope of application. Accordingly, this technology proposes a technical concept for a method of manufacturing a carbon nanotube current collector for an aluminum secondary battery negative electrode based on waste-poly MR, by applying a configuration including a method of manufacturing a carbon nanotube current collector for an aluminum secondary battery negative electrode as a core means,wherein a waste polypropylene mask is washed with acetone and ethanol, and 5℃/min- is implemented.
Accordingly, performance effects of battery adsorption can be expected, and stability, reproducibility,and scalability in actual usage environments can be improved through the carbon source of the carbon nanotube current collector. In addition, it has the effect of being utilized as a high-performance material, device, apparatus, or process technology in related industries, and is advantageous in terms of subsequent commercialization and process expansion, and is also suitable for demonstration deployment.
Key Features:
The present technology relates to anode current collector coated with carbon nano tubes for anode aqueous zinc batteries and anode aqueous zinc battery including the same. In particular, the technology is designed to improve the performance, structural stability, and application efficiency of battery materials and electrode designs based on forming a coating layer containing single-walled carbon nano tubes on a copper anode current collector for an aqueous zinc battery.
Conventionally, there was a problem with zinc dendrites on the surface of the anode current collector that caused internal short circuits in the battery, which could lead to performance degradation, process complexity, lack of stability, or limitations on the scope of application.
Accordingly, stability effects of the water-based zinc battery can be expected by preventing the growth of zinc dendrites and promoting uniform zinc deposition, and stability,reproducibility, and scalability in actual usage environments can be improved by forming a coating layer containing single-walled carbon nano tubes on a copper negative electrode current collector for the water-based zinc battery. In addition, it has the effect of being utilized as a high-performance material,device, apparatus, or process technology in related industries, and is advantageous in terms of subsequent commercialization and process expansion, as well as suitable for demonstration deployment.
Key Features: