mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing hydraulic composite product, comprising steps of: - preparing a hydraulic composite material by - collecting unhandled construction and demolition waste materials to a processing plant, - sorting and grading the collected material to fractions at least according to material, - mixing at least part of the sorted materials with hydraulic binding material, so that at least 90% of the dry mass of the mixture consists of recycled materials from construction and demolition sites and industrial byproducts and at most 10% consists of virgin materials from industry, the amount of hydraulic binding material being 20 - 30 % of the dry mass of the mixture and the hydraulic binding material comprising 75 - 100% mass-% of recycled hydraulic industrial byproduct and at least one alkaline activator of at most 5% of waterglass (Na2O•nSiO2•nH2O) of the dry mass of the binding material, wherein the recycled materials from constructions or demolition sites of the mixture comprise at least one of: particles of different sizes, natural fibres (e. g. wood fibres), stone or glass fibres of insulation material, all having the origin in construction or demolition wastes, - hardening the hydraulic composite material, so that the density of the of the product is set to 500 - 2000 kg/m 3 . - preparing a hydraulic composite material by - collecting unhandled construction and demolition waste materials to a processing plant, - sorting and grading the collected material to fractions at least according to material, - mixing at least part of the sorted materials with hydraulic binding material, so that at least 90% of the dry mass of the mixture consists of recycled materials from construction and demolition sites and industrial byproducts and at most 10% consists of virgin materials from industry, the amount of hydraulic binding material being 20 - 30 % of the dry mass of the mixture and the hydraulic binding material comprising 75 - 100% mass-% of recycled hydraulic industrial byproduct and at least one alkaline activator of at most 5% of waterglass (Na2O•nSiO2•nH2O) of the dry mass of the binding material, wherein the recycled materials from constructions or demolition sites of the mixture comprise at least one of: particles of different sizes, natural fibres (e. g. wood fibres), stone or glass fibres of insulation material, all having the origin in construction or demolition wastes, - hardening the hydraulic composite material, so that the density of the of the product is set to 500 - 2000 kg/m 3 .
An impact protection apparatus for an aerial vehicle, the apparatus comprising: one or more inflatable members configured to be coupled to the aerial vehicle and inflatable to reduce forces experienced by the aerial vehicle during an impact, a container coupled to the one or more inflatable members , said container configured to hold compressed gas, a first power source and a second power source, wherein the first power source is separate from the second power source that is configured to provide power to one or more components of the aerial vehicle, and a control mechanism powered by the first power source, wherein the control mechanism is configured to cause the compressed gas to flow from the container into the inflatable member in response to a signal from a remote terminal or a signal indicative of a state of the aerial vehicle in which a likelihood of impact is increased or imminent; characterized in that the control mechanism is powered independently from the aerial vehicle by the first power source that is independent from the second power source. one or more inflatable members configured to be coupled to the aerial vehicle and inflatable to reduce forces experienced by the aerial vehicle during an impact, a container coupled to the one or more inflatable members , said container configured to hold compressed gas, a first power source and a second power source, wherein the first power source is separate from the second power source that is configured to provide power to one or more components of the aerial vehicle, and a control mechanism powered by the first power source, wherein the control mechanism is configured to cause the compressed gas to flow from the container into the inflatable member in response to a signal from a remote terminal or a signal indicative of a state of the aerial vehicle in which a likelihood of impact is increased or imminent; characterized in that the control mechanism is powered independently from the aerial vehicle by the first power source that is independent from the second power source.
An apparatus for driving an optical-reflector with a multi-axial structure, comprising: a support frame having a first groove rail formed therein; an optical-reflector disposed on the support frame to reflect light to a lens; a middle frame having a first guide rail corresponding to the first groove rail and a second groove rail formed therein; a base frame having a second guide rail formed corresponding to the second groove rail ; a first driving unit (150-1) configured to move the support frame in a first direction on the basis of the middle frame ; and a second driving unit (150-2) configured to move the middle frame in a second direction perpendicular to the first direction, on the basis of the base frame , wherein the first groove rail elongates in the first direction and guides rotation in the first direction and has a rounded shape, the second groove rail elongates in the second direction and guides rotation in the second direction and has a rounded shape, wherein the support frame rotates along a path corresponding to the first groove rail or the first guide rail and the middle frame rotates along a path corresponding to the second groove rail or the second guide rail . a support frame having a first groove rail formed therein; an optical-reflector disposed on the support frame to reflect light to a lens; a middle frame having a first guide rail corresponding to the first groove rail and a second groove rail formed therein; a base frame having a second guide rail formed corresponding to the second groove rail ; a first driving unit (150-1) configured to move the support frame in a first direction on the basis of the middle frame ; and a second driving unit (150-2) configured to move the middle frame in a second direction perpendicular to the first direction, on the basis of the base frame , wherein the first groove rail elongates in the first direction and guides rotation in the first direction and has a rounded shape, the second groove rail elongates in the second direction and guides rotation in the second direction and has a rounded shape, wherein the support frame rotates along a path corresponding to the first groove rail or the first guide rail and the middle frame rotates along a path corresponding to the second groove rail or the second guide rail .
A method for manufacturing a slab having a front layer and a rear layer, said slab comprising fillers, organic binders and additives, said method comprises mixing starting materials comprising fillers, organic binders and additives, heating, shaping, pressing and cooling, characterized in that said method comprises the following steps: i) providing a mixture comprising organic binders, additives and fillers, wherein said fillers comprise fine particles and a first amount of coarse particles, and heating said mixture, the particle size distribution of the fine particles is chosen from a range below 63 micron, the particle size distribution of the first amount of coarse particles is chosen from a range between 63-800 micron; ii) providing a porous substrate layer, said fine particles having a size smaller than the pore size of the porous substrate layer; iii) contacting the mixture of step i) with the porous substrate layer of step ii); iv) exerting a pressure on the construction obtained in step iii) for migrating said organic binder and said fine particles from said mixture of step i) into said porous substrate layer; v) cooling the construction obtained in step iv) for obtaining a slab, wherein due to said step iv) the concentration of said first amount of coarse particles in said front layer of said slab is higher than in said rear layer of said slab. i) providing a mixture comprising organic binders, additives and fillers, wherein said fillers comprise fine particles and a first amount of coarse particles, and heating said mixture, the particle size distribution of the fine particles is chosen from a range below 63 micron, the particle size distribution of the first amount of coarse particles is chosen from a range between 63-800 micron; ii) providing a porous substrate layer, said fine particles having a size smaller than the pore size of the porous substrate layer; iii) contacting the mixture of step i) with the porous substrate layer of step ii); iv) exerting a pressure on the construction obtained in step iii) for migrating said organic binder and said fine particles from said mixture of step i) into said porous substrate layer; v) cooling the construction obtained in step iv) for obtaining a slab, wherein due to said step iv) the concentration of said first amount of coarse particles in said front layer of said slab is higher than in said rear layer of said slab.
Polymer which is a reaction product of a polyurethane polymer containing blocked isocyanate groups with at least one epoxy resin, wherein the polyurethane polymer containing blocked isocyanate groups is an adduct of at least one polyisocyanate and at least one polyester polyol, the isocyanate groups of the adduct being blocked by reaction with at least one aromatic compound which contains one or two phenolic OH groups, and wherein the polyester polyol is formed from at least one C 3 -C 12 diol and at least one aliphatic or aromatic C 3 -C 15 dicarboxylic acid or methyl ester thereof. wherein the polyurethane polymer containing blocked isocyanate groups is an adduct of at least one polyisocyanate and at least one polyester polyol, the isocyanate groups of the adduct being blocked by reaction with at least one aromatic compound which contains one or two phenolic OH groups, and wherein the polyester polyol is formed from at least one C 3 -C 12 diol and at least one aliphatic or aromatic C 3 -C 15 dicarboxylic acid or methyl ester thereof.
A vehicle-body structure for an electric vehicle including a traveling motor (M), the vehicle-body structure comprising: a battery unit (Y) including a battery frame and a battery (FD, RD) that supplies electric power to the traveling motor, the battery frame being disposed below a vehicle cabin (R1) and extending in a vehicle front-rear direction, wherein a battery housing portion in which the battery is housed and a battery non-housing portion in which the battery is not housed are provided alongside in a vehicle front-rear direction below the vehicle cabin, wherein the battery housing portion includes a front-side battery housing portion provided on a vehicle front side of the battery non-housing portion, and a rear-side battery housing portion provided on a vehicle rear side of the battery non-housing portion , and the battery frame includes a first frame portion including front-side and rear-side first frame portions disposed at said front-side and rear-side battery housing portions of the battery housing portion, and a second frame portion disposed at the battery non-housing portion, characterized in that said first frame portion includes one or more central members extending in the front rear direction inside the battery housing portion of the battery frame and said second frame portion includes a central member extending in the front rear direction inside the battery non-housing portion of said battery frame , wherein said central member of the second frame portion is larger in width than said central member of the first frame portion in a vehicle width direction. a battery unit (Y) including a battery frame and a battery (FD, RD) that supplies electric power to the traveling motor, the battery frame being disposed below a vehicle cabin (R1) and extending in a vehicle front-rear direction, wherein a battery housing portion in which the battery is housed and a battery non-housing portion in which the battery is not housed are provided alongside in a vehicle front-rear direction below the vehicle cabin, wherein the battery housing portion includes a front-side battery housing portion provided on a vehicle front side of the battery non-housing portion, and a rear-side battery housing portion provided on a vehicle rear side of the battery non-housing portion , and the battery frame includes a first frame portion including front-side and rear-side first frame portions disposed at said front-side and rear-side battery housing portions of the battery housing portion, and a second frame portion disposed at the battery non-housing portion, characterized in that said first frame portion includes one or more central members extending in the front rear direction inside the battery housing portion of the battery frame and said second frame portion includes a central member extending in the front rear direction inside the battery non-housing portion of said battery frame , wherein said central member of the second frame portion is larger in width than said central member of the first frame portion in a vehicle width direction.
Polymer comprising: (a) polymeric units derived from vinyl chloride; and (b) polymeric units derived from glycerol (meth)acrylate wherein the polymer has • an average particle size of 10 - 80 μm expressed as D 50 determined in accordance with ISO 9276-2 ; and • a porosity of ≤ 0.20 ml/g as determined as the quantity of di(2-ethylhexyl)phthalate in ml absorbed by 1 g of polymer upon subjecting the polymer at 23°C to vacuum, submerging in di(2-ethylhexyl)phthalate for 10 min, and subsequently centrifuging at 2000 rpm for 45 min. (a) polymeric units derived from vinyl chloride; and (b) polymeric units derived from glycerol (meth)acrylate wherein the polymer has • an average particle size of 10 - 80 μm expressed as D 50 determined in accordance with ISO 9276-2 ; and • a porosity of ≤ 0.20 ml/g as determined as the quantity of di(2-ethylhexyl)phthalate in ml absorbed by 1 g of polymer upon subjecting the polymer at 23°C to vacuum, submerging in di(2-ethylhexyl)phthalate for 10 min, and subsequently centrifuging at 2000 rpm for 45 min. • an average particle size of 10 - 80 μm expressed as D 50 determined in accordance with ISO 9276-2 ; and • a porosity of ≤ 0.20 ml/g as determined as the quantity of di(2-ethylhexyl)phthalate in ml absorbed by 1 g of polymer upon subjecting the polymer at 23°C to vacuum, submerging in di(2-ethylhexyl)phthalate for 10 min, and subsequently centrifuging at 2000 rpm for 45 min.
A method comprising: receiving at a network element , from a client computer, a packet that is associated with initiating a client-server session; in response to receiving the packet that is associated with initiating the client-server session, transmitting a workload request from the network element to a workload orchestrator ; the workload orchestrator selecting a selected server , from among a plurality of available geographically or logically distributed servers in network edge computing nodes, to process the client-server session; the workload orchestrator transmitting a request to the selected server to create a workload to process the client-server session; receiving at the network element , from the workload orchestrator , data identifying the selected server ; reprogramming forwarding tables of the network element to cause all later packets associated with the same client-server session and received from the client computer at the network element to be forwarded to the selected server such that later packets bypass the workload orchestrator ; and forwarding from the network element one or more other packets associated with the same client-server session and received from the client computer to the selected server such that the one or more other packets bypass the workload orchestrator. receiving at a network element , from a client computer, a packet that is associated with initiating a client-server session; in response to receiving the packet that is associated with initiating the client-server session, transmitting a workload request from the network element to a workload orchestrator ; the workload orchestrator selecting a selected server , from among a plurality of available geographically or logically distributed servers in network edge computing nodes, to process the client-server session; the workload orchestrator transmitting a request to the selected server to create a workload to process the client-server session; receiving at the network element , from the workload orchestrator , data identifying the selected server ; reprogramming forwarding tables of the network element to cause all later packets associated with the same client-server session and received from the client computer at the network element to be forwarded to the selected server such that later packets bypass the workload orchestrator ; and forwarding from the network element one or more other packets associated with the same client-server session and received from the client computer to the selected server such that the one or more other packets bypass the workload orchestrator.
An electric motor system comprising: a drive shaft rotatable around an axis; a first electric motor and a second electric motor each configured to rotate the drive shaft ; a first inverter configured to supply power for generating a torque to the first electric motor ; a second inverter configured to supply power for generating a torque to the second electric motor ; and a control unit configured to control the first inverter and the second inverter and configured to be able to change a ratio between an output torque of the first electric motor and an output torque of the second electric motor , characterized in that the first electric motor and the second electric motor are constituted by bearingless motors, and the control unit is configured to be able to change the ratio between the output torque of the first electric motor and the output torque of the second electric motor , based on a first index value indicating a bearing load of the first electric motor and a second index value indicating a bearing load of the second electric motor . a drive shaft rotatable around an axis; a first electric motor and a second electric motor each configured to rotate the drive shaft ; a first inverter configured to supply power for generating a torque to the first electric motor ; a second inverter configured to supply power for generating a torque to the second electric motor ; and a control unit configured to control the first inverter and the second inverter and configured to be able to change a ratio between an output torque of the first electric motor and an output torque of the second electric motor , the first electric motor and the second electric motor are constituted by bearingless motors, and the control unit is configured to be able to change the ratio between the output torque of the first electric motor and the output torque of the second electric motor , based on a first index value indicating a bearing load of the first electric motor and a second index value indicating a bearing load of the second electric motor .
Electronic control unit for the management of a plant system, adapted to - receive temperature signals from thermal storage probes; - receive temperature signals from external probes; - receive the electric current intensity and direction signal in transit along the power line, downstream the bidirectional meter and upstream the power line supplying the building's electrical loads: - produces an output signal for the heat pump control and or for the building terminal units control, in function of the mentioned input signals; - operates according to the following logic: it gives a ramps growth to the rotations of the compression group motor of the inverter heat pump and at the same time modifies the set- point values of the thermal storage in the event that there is an energy surplus produced by the solar photovoltaic system as compared to the power consumption related to the instantaneous electrical load of the building; - receive temperature signals from thermal storage probes; - receive temperature signals from external probes; - receive the electric current intensity and direction signal in transit along the power line, downstream the bidirectional meter and upstream the power line supplying the building's electrical loads: - produces an output signal for the heat pump control and or for the building terminal units control, in function of the mentioned input signals; - operates according to the following logic: it gives a ramps growth to the rotations of the compression group motor of the inverter heat pump and at the same time modifies the set- point values of the thermal storage in the event that there is an energy surplus produced by the solar photovoltaic system as compared to the power consumption related to the instantaneous electrical load of the building;
A method for manufacturing an absorbent article having a front waist region , a rear waist region , and a crotch region that is positioned between the front waist region and the rear waist region , and having a front-rear direction (L) that is directed from the front waist region toward the rear waist region , and a width direction (W) that is orthogonal to the front-rear direction (L), the method comprising: a top sheet transport step (S 101) of transporting a top sheet continuous body in which a top sheet that comes into contact with a wearer is continuous; a laminate forming step (S 102) of overlaying an auxiliary sheet that comes into contact with a non-skin surface of the top sheet on the top sheet continuous body to form a sheet laminate; and a shaping step (S 103) of forming a protruded and recessed structure portion having a top portion that protrudes toward a skin facing surface side (T1), a bottom portion that protrudes toward a non-skin facing surface side (T2), and a wall portion that connects the top portion and the bottom portion in an overlaid region (R11) in which the top sheet continuous body and the auxiliary sheet overlap each other in the sheet laminate, wherein in the shaping step (S 103), the protruded and recessed structure portion is formed with spaces in the front-rear direction (L) at a position where at least a part of the protruded and recessed structure portion corresponds to the rear waist region . a top sheet transport step (S 101) of transporting a top sheet continuous body in which a top sheet that comes into contact with a wearer is continuous; a laminate forming step (S 102) of overlaying an auxiliary sheet that comes into contact with a non-skin surface of the top sheet on the top sheet continuous body to form a sheet laminate; and a shaping step (S 103) of forming a protruded and recessed structure portion having a top portion that protrudes toward a skin facing surface side (T1), a bottom portion that protrudes toward a non-skin facing surface side (T2), and a wall portion that connects the top portion and the bottom portion in an overlaid region (R11) in which the top sheet continuous body and the auxiliary sheet overlap each other in the sheet laminate, wherein in the shaping step (S 103), the protruded and recessed structure portion is formed with spaces in the front-rear direction (L) at a position where at least a part of the protruded and recessed structure portion corresponds to the rear waist region .