mhurhangee/patent-ind-claim-en huggingface dataset:
Object receiving device for receiving objects, in particular book covers and/or stacks of book covers, and for discharging the objects into a shelf unit , wherein the object receiving device has a conveyor belt unit and a retention device for retaining the conveyor belt unit , wherein the object receiving device is adapted in such a manner that the conveyor belt unit , in order to receive and/or discharge an object , can be moved out of the retention device and can be moved into the retention device , characterised in that the conveyor belt unit has an orientation unit for orientating the object on the conveyor belt unit , wherein the conveyor belt unit has a transport conveyor belt for transporting the object and an orientation conveyor belt having a protruding lug for orientating the object on the transport conveyor belt , wherein the transport conveyor belt and the orientation conveyor belt can be moved independently of each other, wherein the object receiving device is adapted to store the objects in the shelf unit from a storage side of the shelf unit , wherein the conveyor belt unit is adapted in such a manner that all the discharged objects are arranged flush at a side opposite the storage side even when the objects have different sizes.
A burner comprising: a fuel line having an outlet ; a pre-mixer having a first end , a second end , and a wall extending between the first end and the second end , the pre-mixer being in communication with a source of combustion air and fuel from the fuel line ; a tile having a first side , a second side , and a tile wall extending away from the first side of the tile, wherein the tile wall is of an annular or cylindrical configuration; a metal header having an inlet in communication with said second end ; and a first plurality of outlets located inwardly of said tile wall and a second plurality of outlets located outwardly of said first plurality of outlets and outwardly of the tile wall , wherein said first plurality of outlets are in communication with said header ; wherein said second plurality of outlets are in communication with said header ; and wherein the burner further comprises a first plurality of channels extending through said tile to define said first plurality of outlets in a second side of said tile and a first plurality of pipes extend from said header , each of said first plurality of pipes extending to a respective one of said first plurality of channels . a fuel line having an outlet ; a pre-mixer having a first end , a second end , and a wall extending between the first end and the second end , the pre-mixer being in communication with a source of combustion air and fuel from the fuel line ; a tile having a first side , a second side , and a tile wall extending away from the first side of the tile, wherein the tile wall is of an annular or cylindrical configuration; a metal header having an inlet in communication with said second end ; and a first plurality of outlets located inwardly of said tile wall and a second plurality of outlets located outwardly of said first plurality of outlets and outwardly of the tile wall , wherein said first plurality of outlets are in communication with said header ; wherein said second plurality of outlets are in communication with said header ; and wherein the burner further comprises a first plurality of channels extending through said tile to define said first plurality of outlets in a second side of said tile and a first plurality of pipes extend from said header , each of said first plurality of pipes extending to a respective one of said first plurality of channels .
A support structure, comprising: a three-dimensional, cross-linked wire truss structure comprising a plurality of thermoplastic wire segments bonded together, wherein the plurality of thermoplastic wire segments comprises: a first wire segment of thermoplastic material , the first wire segment having a first saw tooth pattern; a second wire segment of thermoplastic material positioned over and adhered to the first wire segment , the second wire segment having a second saw tooth pattern offset from the first saw tooth pattern; a third wire segment of thermoplastic material positioned over the second wire segment , the third wire segment having the first saw tooth pattern, the third wire segment aligned with and adhered to the first wire segment and offset from the second wire segment . a first wire segment of thermoplastic material , the first wire segment having a first saw tooth pattern; a second wire segment of thermoplastic material positioned over and adhered to the first wire segment , the second wire segment having a second saw tooth pattern offset from the first saw tooth pattern; a third wire segment of thermoplastic material positioned over the second wire segment , the third wire segment having the first saw tooth pattern, the third wire segment aligned with and adhered to the first wire segment and offset from the second wire segment .
A liquid container manufacturing method for manufacturing, from a synthetic resin preform , a liquid container (C) containing a content liquid using a nozzle unit and a blow-molding mold , wherein the nozzle unit includes a supply path for the liquid that extends to a blow nozzle , a discharge path for the liquid that extends to a discharge port provided in a discharge rod, a gas outflow path through which a gas flows out from the blow nozzle, and a gas inflow path which is provided separately from the gas outflow path and through which the gas flows into the blow nozzle , the liquid container manufacturing method comprising: a liquid blow molding step of molding the preform into the liquid container (C) having a shape conforming to an inner surface of the blow-molding mold , by supplying the liquid pressurized by a pressurized liquid supply source to an interior of the preform through the supply path in a state in which the blow nozzle is engaged to a mouth of the preform ; and a headspace (HS) forming step of forming a headspace (HS) in the liquid container(C), by introducing the gas that is pressurized to an interior of the liquid container (C) through the gas inflow path in a state in which the supply path is closed, thereby discharging the liquid from the interior of the liquid container through the discharge port provided in the discharge rod extending to the interior of the liquid container through the blow nozzle . a liquid blow molding step of molding the preform into the liquid container (C) having a shape conforming to an inner surface of the blow-molding mold , by supplying the liquid pressurized by a pressurized liquid supply source to an interior of the preform through the supply path in a state in which the blow nozzle is engaged to a mouth of the preform ; and a headspace (HS) forming step of forming a headspace (HS) in the liquid container(C), by introducing the gas that is pressurized to an interior of the liquid container (C) through the gas inflow path in a state in which the supply path is closed, thereby discharging the liquid from the interior of the liquid container through the discharge port provided in the discharge rod extending to the interior of the liquid container through the blow nozzle .
Bumper arrangement for a vehicle comprising: - two crash boxes (2.1, 2.2), which are configured respectively in 2-parts with a first crash box section (2.11, 2.21) deformable in vehicle longitudinal direction (x) and a second crash box section (2.12, 2.22) deformable in vehicle longitudinal direction (x), - a transverse beam which is coupled to ends of the two crash boxes (2.1, 2.2) and is designed to have a central section (3.0) with end sections (3.1, 3.2) adjoining its ends in vehicle transverse direction (y), wherein - the end sections (3.1, 3.2) are supported respectively on the first crash box section (3.11, 2.21), - the central section (3.0) is supported exclusively on the second crash box sections (2.12, 2.22) and - with an application of energy initiated by a loading event with a post on the central section (3.0) of the transverse beam only the second crash box sections (2.12, 2.22) are deformable in an energy-absorbing manner. - two crash boxes (2.1, 2.2), which are configured respectively in 2-parts with a first crash box section (2.11, 2.21) deformable in vehicle longitudinal direction (x) and a second crash box section (2.12, 2.22) deformable in vehicle longitudinal direction (x), - a transverse beam which is coupled to ends of the two crash boxes (2.1, 2.2) and is designed to have a central section (3.0) with end sections (3.1, 3.2) adjoining its ends in vehicle transverse direction (y), wherein - the end sections (3.1, 3.2) are supported respectively on the first crash box section (3.11, 2.21), - the central section (3.0) is supported exclusively on the second crash box sections (2.12, 2.22) and - with an application of energy initiated by a loading event with a post on the central section (3.0) of the transverse beam only the second crash box sections (2.12, 2.22) are deformable in an energy-absorbing manner.
A sealing valve arrangement for a shaft furnace charging installation, said arrangement comprising: a shutter that cooperates with a valve seat ; a shutter-actuating device for moving said shutter between a closed position in sealing contact with the valve seat and an open position remote from the valve seat ; whereby the said shutter-actuating device comprises: a tilting shaft connected to said shutter ; an electric motor with a output shaft connected to said tilting shaft ; a braking device associated with said electric motor , said braking device being configured for stopping said output shaft of said electric motor from rotating; and characterized by a transmission means arranged between said output shaft of said electric motor and said tilting shaft , wherein said transmission means comprises a backlash configured for having a predetermined amount of allowed rotation between said output shaft of said electric motor and said tilting shaft . a shutter that cooperates with a valve seat ; a shutter-actuating device for moving said shutter between a closed position in sealing contact with the valve seat and an open position remote from the valve seat ; whereby the said shutter-actuating device comprises: a tilting shaft connected to said shutter ; an electric motor with a output shaft connected to said tilting shaft ; a braking device associated with said electric motor , said braking device being configured for stopping said output shaft of said electric motor from rotating; and characterized by a transmission means arranged between said output shaft of said electric motor and said tilting shaft , wherein said transmission means comprises a backlash configured for having a predetermined amount of allowed rotation between said output shaft of said electric motor and said tilting shaft . a tilting shaft connected to said shutter ; an electric motor with a output shaft connected to said tilting shaft ; a braking device associated with said electric motor , said braking device being configured for stopping said output shaft of said electric motor from rotating; and characterized by a transmission means arranged between said output shaft of said electric motor and said tilting shaft , wherein said transmission means comprises a backlash configured for having a predetermined amount of allowed rotation between said output shaft of said electric motor and said tilting shaft .
Valve device for a system for a vehicle , wherein the system has a first control device and a second control device , wherein the control devices can be connected electrically to the valve device , wherein the valve device has the following features; a valve unit for setting a pressure of a working medium for the system , wherein the valve unit has at least one actuator for actuating the valve unit ; a first supply terminal for the electrical connection of the actuator to the first control device , a second supply terminal for the electrical connection of the actuator to the second control device , a first main terminal for the electrical connection of the actuator to the first control device and a second main terminal for the electrical connection of the actuator to the second control device ; a first electrical protective circuit and a second electrical protective circuit , wherein the first protective circuit is connected electrically between the first supply terminal and the second supply terminal on the one hand and the actuator on the other hand, wherein the second protective circuit is connected electrically between the actuator on the one hand and the first main terminal and the second main terminal on the other hand, wherein each protective circuit has an electrical safety apparatus and a diode element , which are inserted serially into at least the first and/or second supply terminals or at least the first and/or second main terminal; and a valve housing for receiving the valve unit and the protective circuits . a valve unit for setting a pressure of a working medium for the system , wherein the valve unit has at least one actuator for actuating the valve unit ; a first supply terminal for the electrical connection of the actuator to the first control device , a second supply terminal for the electrical connection of the actuator to the second control device , a first main terminal for the electrical connection of the actuator to the first control device and a second main terminal for the electrical connection of the actuator to the second control device ; a first electrical protective circuit and a second electrical protective circuit , wherein the first protective circuit is connected electrically between the first supply terminal and the second supply terminal on the one hand and the actuator on the other hand, wherein the second protective circuit is connected electrically between the actuator on the one hand and the first main terminal and the second main terminal on the other hand, wherein each protective circuit has an electrical safety apparatus and a diode element , which are inserted serially into at least the first and/or second supply terminals or at least the first and/or second main terminal; and a valve housing for receiving the valve unit and the protective circuits .
A method of producing a purified argon product stream in a cryogenic air separation unit , the method comprising the steps of: separating argon from an oxygen-argon containing stream within a lower pressure column of the cryogenic air separation unit using an argon rectification column arrangement disposed within the lower pressure column, the separation of the argon from the oxygen-argon containing stream producing an impure argon stream having between about and 4% and 25% of oxygen impurities; characterized by warming the impure argon stream via indirect heat exchange in an argon recovery heat exchanger against a purified argon stream from a pressure swing adsorption system , a waste stream from the pressure swing adsorption system and against a balancing air stream of purified, compressed air from an incoming air purification and compression train of the cryogenic air separation unit; pressurizing the warmed impure argon stream ; and purifying the warmed, pressurized, impure argon stream by introducing the warm, pressurized impure argon stream into the pressure swing adsorption system to produce the purified argon product stream and the waste gas stream; wherein the impure argon stream is an impure gaseous argon stream diverted from an upper location of the argon rectification column arrangement disposed within the lower pressure column. separating argon from an oxygen-argon containing stream within a lower pressure column of the cryogenic air separation unit using an argon rectification column arrangement disposed within the lower pressure column, the separation of the argon from the oxygen-argon containing stream producing an impure argon stream having between about and 4% and 25% of oxygen impurities; characterized by warming the impure argon stream via indirect heat exchange in an argon recovery heat exchanger against a purified argon stream from a pressure swing adsorption system , a waste stream from the pressure swing adsorption system and against a balancing air stream of purified, compressed air from an incoming air purification and compression train of the cryogenic air separation unit; pressurizing the warmed impure argon stream ; and purifying the warmed, pressurized, impure argon stream by introducing the warm, pressurized impure argon stream into the pressure swing adsorption system to produce the purified argon product stream and the waste gas stream; wherein the impure argon stream is an impure gaseous argon stream diverted from an upper location of the argon rectification column arrangement disposed within the lower pressure column.
An active material comprising: a first niobium titanium composite oxide expressed by a general formula (I) below; and a second niobium titanium composite oxide expressed by a general formula (II) below and having a rutile-type crystal structure, the first niobium titanium composite oxide belonging to a crystal structure of a space group C2/m, and having a difference Δp between a maximum value and a minimum value of Nb occupancy in a 4i site, the difference Δp being 0.50 ≤ Δp ≤ 0.80, K a Nb 2-b M b+1-c Ti c O 7 ... (I) Ti 1-y Nb y O z ... (II), wherein in the general formula (I), M is at least one element selected from the group consisting of P, Mo, W, Fe and Ta, a satisfies 0 ≤ a ≤ 1, b satisfies 0 ≤ b ≤ 1, and c satisfies 0 < c ≤ 1, and in the general formula (II), y satisfies 0 < y < 0.5, and z satisfies 2.0 ≤ z < 2.5. a first niobium titanium composite oxide expressed by a general formula (I) below; and a second niobium titanium composite oxide expressed by a general formula (II) below and having a rutile-type crystal structure, the first niobium titanium composite oxide belonging to a crystal structure of a space group C2/m, and having a difference Δp between a maximum value and a minimum value of Nb occupancy in a 4i site, the difference Δp being 0.50 ≤ Δp ≤ 0.80, K a Nb 2-b M b+1-c Ti c O 7 ... (I) Ti 1-y Nb y O z ... (II), wherein in the general formula (I), M is at least one element selected from the group consisting of P, Mo, W, Fe and Ta, a satisfies 0 ≤ a ≤ 1, b satisfies 0 ≤ b ≤ 1, and c satisfies 0 < c ≤ 1, and in the general formula (II), y satisfies 0 < y < 0.5, and z satisfies 2.0 ≤ z < 2.5. in the general formula (I), M is at least one element selected from the group consisting of P, Mo, W, Fe and Ta, a satisfies 0 ≤ a ≤ 1, b satisfies 0 ≤ b ≤ 1, and c satisfies 0 < c ≤ 1, and in the general formula (II), y satisfies 0 < y < 0.5, and z satisfies 2.0 ≤ z < 2.5.
Stator arrangement for an electrical machine, comprising a laminated stator core , comprising a plurality of stator windings , comprising a contacting device , which has at least one contact conductor of sheet metal material, which is formed for electrically interconnecting at least two stator windings , each contact conductor having at least one terminal lug , for electrically coupling an external terminal unit to the contacting device , and at least one hook , for receiving a winding wire end of an associated stator winding which is electrically connected to the contact conductor , characterised in that the hook is formed by first folding of the sheet metal material of the contact conductor to double the thickness of the sheet metal material of the contact conductor and by second folding of the sheet metal material to form the contour of the hook .
An apparatus, comprising: at least one memory including computer program code ; and at least one processor , wherein the at least one memory and the computer program code are configured to, with the at least one processor, cause the apparatus at least to: receive a hybrid multiplexed set of symbols, wherein the hybrid multiplexed set of symbols comprise a hybrid multiplexed, with time division multiplexing and frequency division multiplexing, relay-physical downlink control channel and relay-physical downlink shared channel of a backhaul link for a relay node; and search a searching space, wherein the relay-physical downlink control channel comprises the searching space with semi-statically configured parameters, and wherein the relay-physical downlink control channel searching space is defined by a set of parameters including at least a physical resource block candidate set, a rank for the relay-physical downlink control channel, and control channel element aggregation level. at least one memory including computer program code ; and at least one processor , wherein the at least one memory and the computer program code are configured to, with the at least one processor, cause the apparatus at least to: receive a hybrid multiplexed set of symbols, wherein the hybrid multiplexed set of symbols comprise a hybrid multiplexed, with time division multiplexing and frequency division multiplexing, relay-physical downlink control channel and relay-physical downlink shared channel of a backhaul link for a relay node; and search a searching space, wherein the relay-physical downlink control channel comprises the searching space with semi-statically configured parameters, and wherein the relay-physical downlink control channel searching space is defined by a set of parameters including at least a physical resource block candidate set, a rank for the relay-physical downlink control channel, and control channel element aggregation level. receive a hybrid multiplexed set of symbols, wherein the hybrid multiplexed set of symbols comprise a hybrid multiplexed, with time division multiplexing and frequency division multiplexing, relay-physical downlink control channel and relay-physical downlink shared channel of a backhaul link for a relay node; and search a searching space, wherein the relay-physical downlink control channel comprises the searching space with semi-statically configured parameters, and wherein the relay-physical downlink control channel searching space is defined by a set of parameters including at least a physical resource block candidate set, a rank for the relay-physical downlink control channel, and control channel element aggregation level.
A method of operating an HVAC system , comprising a thermal energy source and a thermal energy transfer device , using a flow regulating device arranged to regulate a flow rate (Φ) of a fluid between the thermal energy source and the thermal energy transfer device , the method comprising: - determining a supply temperature (Ts) of the fluid; - determining a return temperature (Tr) of the fluid; - determining the flow rate (Φ) of the fluid; and - regulating the flow rate (Φ) of the fluid such as to maintain a target temperature difference (dTt) between the supply temperature (Ts) and the return temperature (Tr), while ensuring that: - the return temperature (Tr) is above a minimum return temperature threshold (Trmin); and - the flow rate (Φ) is above an operational flow rate threshold (Φmin) of the thermal energy transfer device . - determining a supply temperature (Ts) of the fluid; - determining a return temperature (Tr) of the fluid; - determining the flow rate (Φ) of the fluid; and - regulating the flow rate (Φ) of the fluid such as to maintain a target temperature difference (dTt) between the supply temperature (Ts) and the return temperature (Tr), while ensuring that: - the return temperature (Tr) is above a minimum return temperature threshold (Trmin); and - the flow rate (Φ) is above an operational flow rate threshold (Φmin) of the thermal energy transfer device . - the return temperature (Tr) is above a minimum return temperature threshold (Trmin); and - the flow rate (Φ) is above an operational flow rate threshold (Φmin) of the thermal energy transfer device .