mhurhangee/patent-ind-claim-en huggingface dataset:
A system for indoor farming comprising: at least one growth rack , comprising a plurality of cells; a plurality of farming modules , each farming module configured to be capable of being stored in a cell and capable of carrying a plurality of farming trays , each farming tray suitable for growing a type of plant and comprising: a planting board having a plurality of holes defined thereon, each hole suitable for holding a nutrient associated with a plant type; and a main recess within which the planting board is capable of being fitted and held in place, wherein each farming module is capable of being one of transported to and transported from a cell. at least one growth rack , comprising a plurality of cells; a plurality of farming modules , each farming module configured to be capable of being stored in a cell and capable of carrying a plurality of farming trays , each farming tray suitable for growing a type of plant and comprising: a planting board having a plurality of holes defined thereon, each hole suitable for holding a nutrient associated with a plant type; and a main recess within which the planting board is capable of being fitted and held in place, a planting board having a plurality of holes defined thereon, each hole suitable for holding a nutrient associated with a plant type; and a main recess within which the planting board is capable of being fitted and held in place, wherein each farming module is capable of being one of transported to and transported from a cell.
A smart heating system comprising: one heater element , one temperature sensor , one switch connected to the heater element , and a heater control unit , characterized in that the smart heating system further comprises a set of predetermined performance information including heater information specific for the heater element , wherein the heater control unit controls the heater element via the switch based on the heater information and information from the temperature sensor .
Flexible support structure for a sliding display arrangement , comprising a flexible sheet and a support arrangement comprising a plurality of support rods arranged to support said flexible sheet , center axes (A1) of said support rods extending in parallel with each other and with said flexible sheet , said flexible sheet comprising a sheet material and a slit pattern allowing said sheet material to fold around a folding axis (A2) parallel with said center axes (A1), each support rod being connected to said flexible sheet by means of a plurality of attachments , wherein the flexible support structure is capable of performing a sliding movement, wherein a path of the sliding movement comprises two linear parts coupled to each other via a curve part, and wherein an axis of the curve part is parallel to the center axes (A1) of said support rods . a flexible sheet and a support arrangement comprising a plurality of support rods arranged to support said flexible sheet , center axes (A1) of said support rods extending in parallel with each other and with said flexible sheet , said flexible sheet comprising a sheet material and a slit pattern allowing said sheet material to fold around a folding axis (A2) parallel with said center axes (A1), each support rod being connected to said flexible sheet by means of a plurality of attachments , wherein the flexible support structure is capable of performing a sliding movement, wherein a path of the sliding movement comprises two linear parts coupled to each other via a curve part, and wherein an axis of the curve part is parallel to the center axes (A1) of said support rods .
A turbine engine comprising: a core engine including a first spool and a second spool rotatable about a main engine longitudinal axis (A); a boost spool powered by a secondary drive system ; an accessory gearbox coupled to the core engine and the boost spool ; and a differential gear system coupled between the core engine , the boost spool and the accessory gearbox for distributing power between the boost spool , the core engine and the accessory gearbox , characterised in that the turbine engine comprises: a boost gear system including a plurality of intermediate gears supported in a selectively rotatable boost carrier , an inner output gear that is coupled to drive the differential gear system , engaged to the intermediate gears and an outer gear coupled to the boost spool , wherein power is transmitted from the outer gear through the intermediate gears to the inner output gear when the carrier is fixed and power is not transmitted between the outer gear to the inner output gear when the carrier is allowed to rotate. a core engine including a first spool and a second spool rotatable about a main engine longitudinal axis (A); a boost spool powered by a secondary drive system ; an accessory gearbox coupled to the core engine and the boost spool ; and a differential gear system coupled between the core engine , the boost spool and the accessory gearbox for distributing power between the boost spool , the core engine and the accessory gearbox ,
Lighting device, including - a flat carrier with front and rear surfaces facing in opposed front and rear directions, said flat carrier comprising a cutout , and said flat carrier being provided with multiple carrier-side electrical contact portions , - a mounting element comprising multiple separately operable LED elements and multiple mount-side electrical contact portions electrically connected to said LED elements , - said mounting element being arranged on said rear surface of said flat carrier such that said LED elements are arranged on or within said cutout and such that an electrical contact is formed with said multiple carrier-side electrical contact portions to emit light into said front direction, - and a heat sink element being positioned to the rear of said mounting element in thermal contact therewith, wherein said multiple carrier-side electrical portions are provided on said rear surface of said flat carrier , wherein said electric contact is formed between said carrier side electric contact portions and said mount-side electrical contact portions , wherein said carrier-side electrical contact portions and said mount-side electrical contact portions are respectively provided as contact pads and are arranged on top of each other forming respective contact pairs, wherein said mounting element comprises an elevated portion projecting into said cutout ; wherein said LED elements are arranged on said elevated portion ; and wherein said mount-side electrical contact portions and said LED elements are provided on the same side of said mounting element . - a flat carrier with front and rear surfaces facing in opposed front and rear directions, said flat carrier comprising a cutout , and said flat carrier being provided with multiple carrier-side electrical contact portions , - a mounting element comprising multiple separately operable LED elements and multiple mount-side electrical contact portions electrically connected to said LED elements , - said mounting element being arranged on said rear surface of said flat carrier such that said LED elements are arranged on or within said cutout and such that an electrical contact is formed with said multiple carrier-side electrical contact portions to emit light into said front direction, - and a heat sink element being positioned to the rear of said mounting element in thermal contact therewith, wherein said multiple carrier-side electrical portions are provided on said rear surface of said flat carrier , wherein said electric contact is formed between said carrier side electric contact portions and said mount-side electrical contact portions , wherein said carrier-side electrical contact portions and said mount-side electrical contact portions are respectively provided as contact pads and are arranged on top of each other forming respective contact pairs, wherein said mounting element comprises an elevated portion projecting into said cutout ; wherein said LED elements are arranged on said elevated portion ; and wherein said mount-side electrical contact portions and said LED elements are provided on the same side of said mounting element .
Substructure for a facade cladding, having a support which can be fixed to a wall and to which a holding part can be fixed in different positions on a portion projecting from the wall , a strip for fixing a multiplicity of cladding elements being fixed to the holding part , wherein a movable connection between the holding part and the support can be fixed via at least one locking element , characterized in that the at least one locking element is wedge-shaped and can be driven into a gap between the holding part and the projecting portion of the support .
A method for aggregating electric power flow between the electric grid and electric vehicle equipment (EVE) of electric vehicles connected to electric vehicle station equipment (EVSE), the method comprising: receiving by an aggregation server EVE operational parameters from each of a plurality of EVEs; calculating the power capacity in Watts of each EVE, based on the received EVE operational parameters; calculating total available power capacity in Watts based on the EVE operational parameters, and the power capacity for each EVE; and characterised by : receiving EVSE attributes from each of a plurality of EVSEs, and in that: the calculating of the calculating the power capacity in Watts of each EVE is further based on the EVSE attributes; the calculating of the total available power capacity in Watts is further based on the EVSE attributes, the EVSE attributes include grid location including one or more of substations, distribution feeders, transformers and building circuits, and dispatching the aggregated amount of power in Watts to the grid that is less than or equal to the calculated total available power capacity. receiving by an aggregation server EVE operational parameters from each of a plurality of EVEs; calculating the power capacity in Watts of each EVE, based on the received EVE operational parameters; calculating total available power capacity in Watts based on the EVE operational parameters, and the power capacity for each EVE; and characterised by : receiving EVSE attributes from each of a plurality of EVSEs, and in that: the calculating of the calculating the power capacity in Watts of each EVE is further based on the EVSE attributes; the calculating of the total available power capacity in Watts is further based on the EVSE attributes, the EVSE attributes include grid location including one or more of substations, distribution feeders, transformers and building circuits, and the calculating of the calculating the power capacity in Watts of each EVE is further based on the EVSE attributes; the calculating of the total available power capacity in Watts is further based on the EVSE attributes, the EVSE attributes include grid location including one or more of substations, distribution feeders, transformers and building circuits, and dispatching the aggregated amount of power in Watts to the grid that is less than or equal to the calculated total available power capacity.
A process for preparing a pyrazole compound of formula V, or a salt, stereoisomer, tautomer or N-oxide thereof comprising the step of cyclizing a hydrazone substituted α,β-unsaturated carbonyl compound of formula IV by reacting it with hydrogen, wherein the compound of formula IV is provided in a reaction mixture comprising as components: (a) a hydrogenation catalyst; (b) an acid selected from Bronsted acids, ammonium salts of Brønsted acids, and Lewis acids; (c) a protic solvent; and optionally (d) an aprotic solvent; and wherein R 1 is C(O)OR c , wherein R c is C 1 -C 4 -alkyl or benzyl; R 2 is CH 3 , or fluoromethyl; R 3 is H; R 4 is selected from C 1 -C 4 -alkyl, which group is unsubstituted, or partially halogenated, and R 5 is selected from C 1 -C 4 -alkyl. (a) a hydrogenation catalyst; (b) an acid selected from Bronsted acids, ammonium salts of Brønsted acids, and Lewis acids; (c) a protic solvent; and optionally (d) an aprotic solvent; R 1 is C(O)OR c , wherein R c is C 1 -C 4 -alkyl or benzyl; R 2 is CH 3 , or fluoromethyl; R 3 is H; R 4 is selected from C 1 -C 4 -alkyl, which group is unsubstituted, or partially halogenated, and R 5 is selected from C 1 -C 4 -alkyl.
A nanoparticle complex comprising a nanoparticle core and an autoantigen peptide-MHC complex covalently coupled to the nanoparticle core, a. wherein the nanoparticle core has a diameter of less than 1 μm; and b. wherein the ratio of autoantigen peptide-MHC complexes coupled to the nanoparticle core is from 10:1 to 1000:1; and wherein the nanoparticle core comprises a metal, a metal oxide, a metal sulfide, a metal selenide, a magnetic material, gold, iron, or iron oxide. a. wherein the nanoparticle core has a diameter of less than 1 μm; and b. wherein the ratio of autoantigen peptide-MHC complexes coupled to the nanoparticle core is from 10:1 to 1000:1; and
A machine for producing tubes (T), comprising: - a mandrel , around which a tube (T) is formed by winding at least one strip (S1; S2) of web material, the mandrel having a longitudinal axis (A-A); - a winding unit to wind said at least one strip (S1; S2) of web material around the mandrel ; - a cutting unit comprising at least one rotating cutting blade provided with reciprocating motion to cyclically cut the tube (T) being formed around the mandrel ; characterized in that the rotating cutting blade is constrained to move with a reciprocating motion along a circular trajectory; and that the center of the circular trajectory is controlled to be cyclically moved: into a position closer to the mandrel longitudinal axis (A-A) during a forward stroke of the rotating cutting blade in the same direction as the feed direction of the tube (T) being formed, where the rotating cutting blade cuts the tube; and into a position farther away from the mandrel longitudinal axis (A-A) during a back stroke of the rotating cutting blade in a direction opposite to the feed direction of the tube being formed. - a mandrel , around which a tube (T) is formed by winding at least one strip (S1; S2) of web material, the mandrel having a longitudinal axis (A-A); - a winding unit to wind said at least one strip (S1; S2) of web material around the mandrel ; - a cutting unit comprising at least one rotating cutting blade provided with reciprocating motion to cyclically cut the tube (T) being formed around the mandrel ;
A lining armor plate for a casing of a hammer mill, characterized in that it has a surface that is contoured with parallel series of recesses which extend along a same longitudinal direction and are alternated with regions without recesses, said recesses extending along the direction of travel of the material being processed within the casing from an entry region to an exit region.
A composition comprising A. a first interpolymer comprising (i) ethylene monomer residues, (ii) residues of a first comonomer having one or more functionalities wherein the first comonomer comprises maleic anhydride and (iii) residues of an additional comonomer comprising butyl acrylate; B. a second interpolymer comprising ethylene monomer residues and residues of a second comonomer having epoxide functionality; and C. from 0.18 to 0.40 wt%, based on the total weight of the composition, of a peroxide free radical initiator; D. from 0.005 to 1.2 wt%, based on the total weight of the composition of a crosslinking catalyst; and wherein the first interpolymer is present in an amount ranging from 60 to 95 wt%, based on the combined weight of the first and second interpolymer weight, with the balance being the second interpolymer in an amount ranging from 40 wt% to 5 wt%. A. a first interpolymer comprising (i) ethylene monomer residues, (ii) residues of a first comonomer having one or more functionalities wherein the first comonomer comprises maleic anhydride and (iii) residues of an additional comonomer comprising butyl acrylate; B. a second interpolymer comprising ethylene monomer residues and residues of a second comonomer having epoxide functionality; and C. from 0.18 to 0.40 wt%, based on the total weight of the composition, of a peroxide free radical initiator; D. from 0.005 to 1.2 wt%, based on the total weight of the composition of a crosslinking catalyst; and
An apparatus comprising: physical layer, PHY, logic; a register, wherein the register is associated with the PHY; an interface configured to couple the physical layer logic to a media access layer, MAC , wherein the interface comprises: a transmit pair configured to send data to the MAC; a receive pair configured to receive data from the MAC; a message bus interface configured to receive a write command from the MAC , wherein the write command is configured causes a value to be written to the register, and the value identifies a recalibration request; and a recalibration logic configured to perform a recalibration of a PHY receiver based on the recalibration request; the apparatus is characterized in that another write command is configured to be sent on the message bus interface from the PHY configured to write a particular value to an address associated with a MAC register hosted in MAC address space, and the particular value is configured to indicate that the recalibration is completed; wherein the PHY register comprises a receiver control register and the MAC register comprises a receiver status register; and wherein the value written to the PHY register comprises a value to an IORecal bit of the receiver control register, and the particular value written to the MAC register comprises an IORecalDone bit of the receiver status register. physical layer, PHY, logic; a register, wherein the register is associated with the PHY; an interface configured to couple the physical layer logic to a media access layer, MAC , a transmit pair configured to send data to the MAC; a receive pair configured to receive data from the MAC; a message bus interface configured to receive a write command from the MAC , wherein the write command is configured causes a value to be written to the register, and the value identifies a recalibration request; and a recalibration logic configured to perform a recalibration of a PHY receiver based on the recalibration request; another write command is configured to be sent on the message bus interface from the PHY configured to write a particular value to an address associated with a MAC register hosted in MAC address space, and the particular value is configured to indicate that the recalibration is completed; wherein the PHY register comprises a receiver control register and the MAC register comprises a receiver status register; and wherein the value written to the PHY register comprises a value to an IORecal bit of the receiver control register, and the particular value written to the MAC register comprises an IORecalDone bit of the receiver status register.
An electric vehicle, comprising: a non-isolated direct current to direct current (DC-DC) booster that boosts a first voltage of a charging station to a second voltage of a battery of the electric vehicle ; a first insulation monitoring device (IMD) comprising an active symmetrization circuit, a resistor ; and a switch that closes or opens to enable or disable the resistor , and a first contactor on a positive connection and a second contactor on a negative connection , wherein the first IMD is communicatively coupled to a second IMD of the charging station through the first contactor and the second contactor , and receives data indicative of a fourth voltage on a negative side of insulation resistance of the charging station from the second IMD , wherein the first IMD adjusts a third voltage on a negative side of insulation resistance of the electric vehicle to the fourth voltage by opening or closing the switch , and wherein the first contactor and second contactor close after the third voltage matches the fourth voltage. a non-isolated direct current to direct current (DC-DC) booster that boosts a first voltage of a charging station to a second voltage of a battery of the electric vehicle ; a first insulation monitoring device (IMD) comprising an active symmetrization circuit, a resistor ; and a switch that closes or opens to enable or disable the resistor , and a first contactor on a positive connection and a second contactor on a negative connection , wherein the first IMD is communicatively coupled to a second IMD of the charging station through the first contactor and the second contactor , and receives data indicative of a fourth voltage on a negative side of insulation resistance of the charging station from the second IMD , wherein the first IMD adjusts a third voltage on a negative side of insulation resistance of the electric vehicle to the fourth voltage by opening or closing the switch , and wherein the first contactor and second contactor close after the third voltage matches the fourth voltage.
A label system comprising: a first label assembly adapted for use in cold environments, the first label assembly comprising: an inner substrate ; an outer substrate ; a layer of adhesive disposed between the inner substrate and the outer substrate ; and a layer of adhesive disposed along an underside of the inner substrate , the outer substrate of the first label assembly being removable to thereby expose the layer of adhesive disposed between the inner substrate and the outer substrate ; and a supplemental label assembly configured for application to the first label assembly , the supplemental label assembly comprising: an outer substrate ; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly ; wherein the supplemental label assembly is configured for application to the layer of adhesive disposed between the inner substrate and the outer substrate of the first label assembly after removal of the outer substrate , in such a way that, after application, the layer of adhesive of the supplemental label assembly is in contact with the layer of adhesive of the first label assembly . a first label assembly adapted for use in cold environments, the first label assembly comprising: an inner substrate ; an outer substrate ; a layer of adhesive disposed between the inner substrate and the outer substrate ; and a layer of adhesive disposed along an underside of the inner substrate , the outer substrate of the first label assembly being removable to thereby expose the layer of adhesive disposed between the inner substrate and the outer substrate ; and a supplemental label assembly configured for application to the first label assembly , the supplemental label assembly comprising: an outer substrate ; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly ; an inner substrate ; an outer substrate ; a layer of adhesive disposed between the inner substrate and the outer substrate ; and a layer of adhesive disposed along an underside of the inner substrate , the outer substrate of the first label assembly being removable to thereby expose the layer of adhesive disposed between the inner substrate and the outer substrate ; and a supplemental label assembly configured for application to the first label assembly , the supplemental label assembly comprising: an outer substrate ; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly ; an outer substrate ; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly ; wherein the supplemental label assembly is configured for application to the layer of adhesive disposed between the inner substrate and the outer substrate of the first label assembly after removal of the outer substrate , in such a way that, after application, the layer of adhesive of the supplemental label assembly is in contact with the layer of adhesive of the first label assembly .