mhurhangee/patent-ind-claim-en huggingface dataset:
An isocyanate-modified polyester-epoxide polymer (i-PEEP) composition which comprises a reaction product of: (a) a polyepoxide compound having an equivalent weight within the range of 125 to 250 g/eq.; (b) a polyol composition comprising a polyester polyol, wherein the polyester polyol has a hydroxyl value within the range of 50 to 400 mg KOH/g, an average hydroxyl functionality within the range of 1.5 to 4.0, and an acid number less than 5 mg KOH/g; and (c) a polyisocyanate having an average NCO functionality within the range of 2.0 to 3.0; wherein the polyepoxide compound comprises an aliphatic polyepoxide, the aliphatic polyepoxide being a cycloaliphatic polyepoxide; and wherein the ratio of epoxy equivalents of the polyepoxide compound to hydroxyl equivalents of the polyol composition is within the range of 0.2 to 2, the i-PEEP index as defined herein is within the range of 100 to 200; and the i-PEEP composition has a glass-transition temperature as measured by differential scanning calorimetry within the range of -30°C to 35°C. (a) a polyepoxide compound having an equivalent weight within the range of 125 to 250 g/eq.; (b) a polyol composition comprising a polyester polyol, wherein the polyester polyol has a hydroxyl value within the range of 50 to 400 mg KOH/g, an average hydroxyl functionality within the range of 1.5 to 4.0, and an acid number less than 5 mg KOH/g; and (c) a polyisocyanate having an average NCO functionality within the range of 2.0 to 3.0; wherein the polyepoxide compound comprises an aliphatic polyepoxide, the aliphatic polyepoxide being a cycloaliphatic polyepoxide; and wherein the ratio of epoxy equivalents of the polyepoxide compound to hydroxyl equivalents of the polyol composition is within the range of 0.2 to 2, the i-PEEP index as defined herein is within the range of 100 to 200; and the i-PEEP composition has a glass-transition temperature as measured by differential scanning calorimetry within the range of -30°C to 35°C.
A method for processing a beacon frame by a terminal in a wireless local area network, the method comprising the steps of: receiving (S610), by the terminal from an access point (AP), the beacon frame including a traffic indication map (TIM), a page index, a first bitmap (S630) and one or more second bitmap, wherein: the TIM is based on a hierarchical structure that a page (S620) includes a plurality of blocks and a block includes a plurality of sub-blocks, and the first bitmap indicates (S640) presence of buffered data for each of one or more blocks in a page indicated by the page index, a second bitmap indicates presence of buffered data for each of one or more sub-blocks, and each of one or more sub-blocks corresponds to each of one or more terminal; and decoding (S650) the one or more blocks included in the page when the first bitmap indicates that there is a buffered data at the AP for the terminal, wherein the one or more blocks included in the page are decoded based on the second bitmap by the terminal. receiving (S610), by the terminal from an access point (AP), the beacon frame including a traffic indication map (TIM), a page index, a first bitmap (S630) and one or more second bitmap, wherein: the TIM is based on a hierarchical structure that a page (S620) includes a plurality of blocks and a block includes a plurality of sub-blocks, and the first bitmap indicates (S640) presence of buffered data for each of one or more blocks in a page indicated by the page index, a second bitmap indicates presence of buffered data for each of one or more sub-blocks, and each of one or more sub-blocks corresponds to each of one or more terminal; and the TIM is based on a hierarchical structure that a page (S620) includes a plurality of blocks and a block includes a plurality of sub-blocks, and the first bitmap indicates (S640) presence of buffered data for each of one or more blocks in a page indicated by the page index, a second bitmap indicates presence of buffered data for each of one or more sub-blocks, and each of one or more sub-blocks corresponds to each of one or more terminal; and decoding (S650) the one or more blocks included in the page when the first bitmap indicates that there is a buffered data at the AP for the terminal, wherein the one or more blocks included in the page are decoded based on the second bitmap by the terminal.
A method for controlling at least two energy converters for providing heat or cooling capacity to a distribution system comprising at least one heat or cold sink, wherein a heat or cooling capacity demand Q̇ of at least one distribution system is determined, wherein at least a first energy converter uses electric power to generate available heat or cooling capacities to meet the heat or cooling capacity demand of the distribution system, wherein at least two available heat or cooling capacities Q̇ h of the at least two energy converters are determined, wherein a most favourable combination K best for the heat or cooling capacity demand Q̇ of the distribution system is selected from the at least two available heat or cooling capacities Q̇ h of two energy converters, wherein, for the at least one first energy converter, an electric power consumption of the first energy converter and a price level assigned to the electric power consumption are assigned to each available heat or cooling capacity, and the energy converters adjust a set value of the energy converter according to the combination K best , depending on the selected available capacities Q̇ h , wherein the combination K best is selected for the respective available heat or cooling capacity based on current electricity prices, wherein a selectable weight coefficient is assigned to each of the at least two available heat and cooling capacities, wherein the at least one first energy converter represents a variable speed air/water heat pump, wherein the performance factor of the air/water heat pump is dependent on the flow temperature of the air/water heat pump, an outside temperature, and a compressor speed of a compressor of the air/water heat pump, wherein, at a given flow temperature and at varying compressor speeds, varying available heat or cooling capacities with varying outputs and varying performance factors can be released.
A magnetic coupling assembly comprising: a rotatable male coupling member comprising magnets ; a rotatable female coupling member comprising magnets ; a static separation member arranged between the male and female coupling members; a first channel in a gap between the male coupling member and the separation member; a second channel in a gap between the female coupling member and the separation member; an axial internal channel in the male coupling member; a magnetic coupling section of the static separation member , wherein the magnetic coupling section is the section of the static separation member between the magnets of the male coupling member and the magnets of the female coupling member; wherein the female and male coupling members are rotatable coupled by the magnets through the magnetic coupling section of the static separation member; wherein the first channel , the second channel and the axial internal channel contain fluid forced to flow through said channels for cooling and rotodynamic stabilization; and wherein the magnetic coupling section of the static separation member has a length to diameter ratio larger than one, characterised in that one or both of the first and second channels, in a direction of flow, has a non-uniform radial gap for flow, wherein the radial gap is stepwise and/or gradually decreasing or increasing along the direction of flow, for improved rotodynamic stability. a rotatable male coupling member comprising magnets ; a rotatable female coupling member comprising magnets ; a static separation member arranged between the male and female coupling members; a first channel in a gap between the male coupling member and the separation member; a second channel in a gap between the female coupling member and the separation member; an axial internal channel in the male coupling member; a magnetic coupling section of the static separation member , wherein the magnetic coupling section is the section of the static separation member between the magnets of the male coupling member and the magnets of the female coupling member; wherein the female and male coupling members are rotatable coupled by the magnets through the magnetic coupling section of the static separation member; wherein the first channel , the second channel and the axial internal channel contain fluid forced to flow through said channels for cooling and rotodynamic stabilization; and
Method for geolocating a terminal of a wireless communication system , said wireless communication system comprising an access network configured to estimate an approximate geographical position of said terminal , the terminal comprising a positioning device for obtaining a precise geographical position of the terminal , the precision of which is better than the precision of the approximate geographical position estimated by the access network , the method being characterized in that the method includes: - calculation by the terminal of truncated information on the precise geographical position by breaking down said precise geographical position into a first part and a second part, the first part varying less quickly than the second part when the terminal moves, the truncated information representing the second part of the precise geographical position, - transmission by the terminal of the truncated information in a message intended for the access network , - estimation of the approximate geographical position of the terminal by the access network , - extraction by the access network of the truncated information from the message received coming from the terminal , - determination by the access network of the precise geographical position of the terminal from the truncated information and from the approximate geographical position. - calculation by the terminal of truncated information on the precise geographical position by breaking down said precise geographical position into a first part and a second part, the first part varying less quickly than the second part when the terminal moves, the truncated information representing the second part of the precise geographical position, - transmission by the terminal of the truncated information in a message intended for the access network , - estimation of the approximate geographical position of the terminal by the access network , - extraction by the access network of the truncated information from the message received coming from the terminal , - determination by the access network of the precise geographical position of the terminal from the truncated information and from the approximate geographical position.
A stacked rotor of a motor, the rotor comprising: a rotor core member formed of thin disk plates, called rotor core plates, and including a shaft hole extended to an axial direction, a key groove communicating with the shaft hole and a magnet ; a shaft press-fitted into the shaft hole and concavely formed at a peripheral position corresponding to that of the key groove with a key accommodation groove ; and at least one or more keys provided at the key groove and the key accommodation groove to restrict the rotor core member and the shaft , characterized in that the rotor core member is formed at each distal cross-sectional end with a first magnet disengagement prevention member and a second magnet disengagement prevention member , and the first magnet disengagement prevention member includes a disk-shaped through hole corresponding to a diameter of the shaft , and at least one or more hook lugs protrusively formed at an inner side of the through hole to be hooked to a reception groove formed at a position corresponding to that of the shaft , wherein the hook lug is hooked by being rotated to a direction perpendicular to an axial direction after being inserted into the reception groove to the axial direction of the shaft . a rotor core member formed of thin disk plates, called rotor core plates, and including a shaft hole extended to an axial direction, a key groove communicating with the shaft hole and a magnet ; a shaft press-fitted into the shaft hole and concavely formed at a peripheral position corresponding to that of the key groove with a key accommodation groove ; and at least one or more keys provided at the key groove and the key accommodation groove to restrict the rotor core member and the shaft , characterized in that the rotor core member is formed at each distal cross-sectional end with a first magnet disengagement prevention member and a second magnet disengagement prevention member , and the first magnet disengagement prevention member includes a disk-shaped through hole corresponding to a diameter of the shaft , and at least one or more hook lugs protrusively formed at an inner side of the through hole to be hooked to a reception groove formed at a position corresponding to that of the shaft , wherein the hook lug is hooked by being rotated to a direction perpendicular to an axial direction after being inserted into the reception groove to the axial direction of the shaft .
An isolated nucleic acid molecule comprising, or consisting of, the nucleic acid sequence of SEQ ID NO:1, or consisting of a nucleic acid sequence of at least 400 bp having at least 90% identity to said sequence of SEQ ID NO:1, wherein said isolated nucleic acid molecule leads to the specific expression of a heterologous gene in rod photoreceptors when a nucleic acid sequence coding for said heterologous gene is operatively linked to said isolated nucleic acid molecule.
A sensing module comprising: a substrate ; a sensing electrode disposed on the substrate ; a reaction layer disposed on the substrate and burying the substrate and the sensing electrode , characterized by further comprising: a driving unit disposed below the substrate electrically connected to the sensing electrode , a via formed through the substrate , one end thereof is connected to the sensing electrode , and the other end thereof is connected to the driving unit ; and a protective layer formed surrounding the substrate , the reaction layer , and the driving unit , wherein the reaction layer comprises a carbon micro-coil, a resin and a dispersant, wherein an impedance value of the reaction layer is changed by an external contact material, and wherein the sensing electrode provides a sensing signal corresponding to the impedance value to the driving unit . a substrate ; a sensing electrode disposed on the substrate ; a reaction layer disposed on the substrate and burying the substrate and the sensing electrode , characterized by further comprising: a driving unit disposed below the substrate electrically connected to the sensing electrode , a via formed through the substrate , one end thereof is connected to the sensing electrode , and the other end thereof is connected to the driving unit ; and a protective layer formed surrounding the substrate , the reaction layer , and the driving unit , a driving unit disposed below the substrate electrically connected to the sensing electrode , a via formed through the substrate , one end thereof is connected to the sensing electrode , and the other end thereof is connected to the driving unit ; and a protective layer formed surrounding the substrate , the reaction layer , and the driving unit , wherein the reaction layer comprises a carbon micro-coil, a resin and a dispersant, wherein an impedance value of the reaction layer is changed by an external contact material, and wherein the sensing electrode provides a sensing signal corresponding to the impedance value to the driving unit .
A portable, insulated food container comprising: a vacuum insulated removable outer cover ; a vacuum insulated base ; a vacuum insulated base carrier ; one or more non-insulated container(s) : one or more detachable lid(s) ; a supporting base ; one or more interlocking units ; wherein the vacuum insulated removable outer cover comprises one or more grips ; wherein the interlocking unit comprises of one or more latches on the side walls of the vacuum insulated base carrier and one or more knobs/ locking pins on the side walls of the vacuum insulated removable outer cover , wherein, the vacuum insulated base carrier and the vacuum insulated base is a unitary system , wherein an activated getter pill is used to maintain a high vacuum in the unitary system and the vacuum insulated base carrier is configured to receive the vacuum insulated removable outer cover which snug fits on the vacuum insulated base carrier at the insulated base about the outer rim of the vacuum insulated base carrier . a vacuum insulated removable outer cover ; a vacuum insulated base ; a vacuum insulated base carrier ; one or more non-insulated container(s) : one or more detachable lid(s) ; a supporting base ; one or more interlocking units ; one or more detachable lid(s) ; a supporting base ; one or more interlocking units ; wherein the vacuum insulated removable outer cover comprises one or more grips ; wherein the interlocking unit comprises of one or more latches on the side walls of the vacuum insulated base carrier and one or more knobs/ locking pins on the side walls of the vacuum insulated removable outer cover , wherein, the vacuum insulated base carrier and the vacuum insulated base is a unitary system , wherein an activated getter pill is used to maintain a high vacuum in the unitary system and the vacuum insulated base carrier is configured to receive the vacuum insulated removable outer cover which snug fits on the vacuum insulated base carrier at the insulated base about the outer rim of the vacuum insulated base carrier .
A prechamber arrangement for a piston engine, the prechamber arrangement comprising - a prechamber , which comprises an opening for receiving a spark plug and at least one fuel inlet for introducing fuel into the prechamber , - a nozzle chamber , which is in fluid communication with the prechamber and comprises at least one opening for receiving air/fuel mixture from a main combustion chamber of the engine and for supplying ignited fluid mixture from the prechamber into the main combustion chamber , and - a dome-shaped mixing element that is arranged between the prechamber and the nozzle chamber , characterized in that the concave side of the dome-shaped mixing element faces the nozzle chamber . - a prechamber , which comprises an opening for receiving a spark plug and at least one fuel inlet for introducing fuel into the prechamber , - a nozzle chamber , which is in fluid communication with the prechamber and comprises at least one opening for receiving air/fuel mixture from a main combustion chamber of the engine and for supplying ignited fluid mixture from the prechamber into the main combustion chamber , and - a dome-shaped mixing element that is arranged between the prechamber and the nozzle chamber ,
A system for processing greenhouse gases comprising: a collection subsystem configured to collect a gaseous mixture comprising carbon dioxide and methane; a combustion subsystem configured to combust said methane in said gaseous mixture and output a gaseous combustion effluent, wherein said combustion subsystem generates electrical energy, water and additional quantities of said carbon dioxide; and a separation subsystem configured to separate said carbon dioxide and water from said gaseous combustion effluent and send the separated carbon dioxide to carbon dioxide collection and send the separated water to water collection , wherein said separation subsystem comprises: an adsorption chamber comprising an adsorbent material that is arranged to adsorb carbon dioxide from the remaining gaseous combustion effluent by way of a physical adsorption process; and a heat exchanger configured to cool the gaseous combustion effluent prior to the gaseous combustion effluent entering the adsorption chamber and condense water within the gaseous combustion effluent. a collection subsystem configured to collect a gaseous mixture comprising carbon dioxide and methane; a combustion subsystem configured to combust said methane in said gaseous mixture and output a gaseous combustion effluent, wherein said combustion subsystem generates electrical energy, water and additional quantities of said carbon dioxide; and a separation subsystem configured to separate said carbon dioxide and water from said gaseous combustion effluent and send the separated carbon dioxide to carbon dioxide collection and send the separated water to water collection , wherein said separation subsystem comprises: an adsorption chamber comprising an adsorbent material that is arranged to adsorb carbon dioxide from the remaining gaseous combustion effluent by way of a physical adsorption process; and a heat exchanger configured to cool the gaseous combustion effluent prior to the gaseous combustion effluent entering the adsorption chamber and condense water within the gaseous combustion effluent. an adsorption chamber comprising an adsorbent material that is arranged to adsorb carbon dioxide from the remaining gaseous combustion effluent by way of a physical adsorption process; and a heat exchanger configured to cool the gaseous combustion effluent prior to the gaseous combustion effluent entering the adsorption chamber and condense water within the gaseous combustion effluent.
A pyroelectric detector system comprising: a chip ; a pyroelectric focal plane array integrated into the chip, the focal plane array including a plurality of image sensors configured to convert electromagnetic radiation into an electrical signal; a memory module integrated into the chip and coupled to the focal plane array , wherein the memory module comprises a ferroelectric random access memory; a processor integrated into the chip and coupled to the focal plane array and the memory module ; a signal conditioning module integrated into the chip and coupled to the focal plane array and the memory module ; a wireless communication module integrated into the chip and coupled to the focal plane array and the memory module ; at least one of a power acquisition device and a power storage device ; and a power management module integrated into the chip , the power management module configured to conduct a power scheduling function which minimizes current spikes by controlling the simultaneous use of the various on-chip components including the signal conditioning module, the wireless communication module, and the memory module. a chip ; a pyroelectric focal plane array integrated into the chip, the focal plane array including a plurality of image sensors configured to convert electromagnetic radiation into an electrical signal; a memory module integrated into the chip and coupled to the focal plane array , wherein the memory module comprises a ferroelectric random access memory; a processor integrated into the chip and coupled to the focal plane array and the memory module ; a signal conditioning module integrated into the chip and coupled to the focal plane array and the memory module ; a wireless communication module integrated into the chip and coupled to the focal plane array and the memory module ; at least one of a power acquisition device and a power storage device ; and a power management module integrated into the chip , the power management module configured to conduct a power scheduling function which minimizes current spikes by controlling the simultaneous use of the various on-chip components including the signal conditioning module, the wireless communication module, and the memory module.