mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a container with at least one opening for storing cleaning agents for a toilet basket to be attached to the rim of a toilet, wherein a flat cellulose-containing fiber material is provided and at least one opening is punched into the flat cellulose-containing fiber material and the flat cellulose-containing fiber material is then formed into a three-dimensional shape by deep drawing, cold forming, cold pressing, or hydroforming.
A method for securing a blockchain access through a gateway (GAT) on behalf of a communication device (CD) in a wireless telecommunication network (TN), the method comprising the following steps in an apparatus (AM) operating with the gateway: receiving (S2) a request (Req) sent from a communication device (CD) through the gateway (GAT), the request containing an identifier (IdCD) of the communication device, an identifier (IdR) of the request and a key (K), checking (S3) a distributed blockchain that includes information regarding the communication device and that is stored in a first blockchain network (BN1 ) and retrieving a value (V) corresponding to the key (K), creating (S4) a smart contract based on the key (K), the value (V), a timestamp (T), the identifier (IdCD) of the communication device, and the identifier (IdR) of the request, the smart contract being defined to confirm the validity of value (V) corresponding to the key (K) in the first blockchain network (BN1), appending (S5) the smart contract to a second blockchain network (BN2), the smart contract having to be executed on the first blockchain network (BN1) by at least one validator having access to the first blockchain network (BN1) and second blockchain network (BN2), signing (S6) a response (Res) containing the key (K), the value (V), and the identifier (IdR) of the request with a certificate (Cert), sending (S7) the response (Res) to the communication device (CD) through the gateway (GAT). receiving (S2) a request (Req) sent from a communication device (CD) through the gateway (GAT), the request containing an identifier (IdCD) of the communication device, an identifier (IdR) of the request and a key (K), checking (S3) a distributed blockchain that includes information regarding the communication device and that is stored in a first blockchain network (BN1 ) and retrieving a value (V) corresponding to the key (K), creating (S4) a smart contract based on the key (K), the value (V), a timestamp (T), the identifier (IdCD) of the communication device, and the identifier (IdR) of the request, the smart contract being defined to confirm the validity of value (V) corresponding to the key (K) in the first blockchain network (BN1), appending (S5) the smart contract to a second blockchain network (BN2), the smart contract having to be executed on the first blockchain network (BN1) by at least one validator having access to the first blockchain network (BN1) and second blockchain network (BN2), signing (S6) a response (Res) containing the key (K), the value (V), and the identifier (IdR) of the request with a certificate (Cert), sending (S7) the response (Res) to the communication device (CD) through the gateway (GAT).
A cascade impactor for measuring particle size distribution of an aerosol comprising nicotine, the cascade impactor comprising: an induction port for receiving an inhaler ; and a plurality of sample collection stages each comprising a nozzle assembly and a collection means in the form of an impaction surface for collection of particles from the respective nozzle; characterized in that at least one impaction surface comprises a coating of isopropyl alcohol present in solution with heptadecane. an induction port for receiving an inhaler ; and a plurality of sample collection stages each comprising a nozzle assembly and a collection means in the form of an impaction surface for collection of particles from the respective nozzle; characterized in that at least one impaction surface comprises a coating of isopropyl alcohol present in solution with heptadecane.
A method of tracking fan stress for a gas turbine engine comprising a fan section including a fan comprising a fan blade , wherein the method comprises: receiving, from a probe , an inlet pressure at a location in an engine inlet ; receiving, from one or more sensors , an ambient pressure; determining a disturbance defined as an absolute difference between the inlet pressure and the ambient pressure; associating the inlet pressure with a fan stress fatigue ratio for the fan blade according to a fan stress fatigue ratio profile (C1, C2, C3) defined with respect to one or more characteristics of the fan , wherein the fan stress fatigue ratio profile (C1, C2, C3) defines a relationship between the fan stress fatigue ratio and the disturbance, wherein the fan stress fatigue ratio is a ratio of the highest local stress in any portion of the fan blade compared to the cyclic fatigue strength for ten million cycles; determining whether the fan stress fatigue ratio meets at least one predetermined criterion, the at least one predetermined criterion including at least one fan stress fatigue ratio threshold (T1, T2, T3). receiving, from a probe , an inlet pressure at a location in an engine inlet ; receiving, from one or more sensors , an ambient pressure; determining a disturbance defined as an absolute difference between the inlet pressure and the ambient pressure; associating the inlet pressure with a fan stress fatigue ratio for the fan blade according to a fan stress fatigue ratio profile (C1, C2, C3) defined with respect to one or more characteristics of the fan , wherein the fan stress fatigue ratio profile (C1, C2, C3) defines a relationship between the fan stress fatigue ratio and the disturbance, wherein the fan stress fatigue ratio is a ratio of the highest local stress in any portion of the fan blade compared to the cyclic fatigue strength for ten million cycles; determining whether the fan stress fatigue ratio meets at least one predetermined criterion, the at least one predetermined criterion including at least one fan stress fatigue ratio threshold (T1, T2, T3).
A control method for a vehicle injector, comprising: an injection time determination step (S100) in which a controller determines whether it is necessary for multiple injectors arranged on an intake port to inject fuel towards one and the same combustion chamber according to a combustion cycle of a combustion chamber ; an individual injection step (S200) in which the controller controls each of the injectors to individually inject fuel in at least two subsequent injections, in a state in which intake valves are open, where the times for the first injections of each injector would not overlap each other; and characterised by a simultaneous injection step (S300) in which the controller controls each of the injectors to simultaneously inject fuel, in a state in which the intake valves are open, where the time for the last injections of each injector would be identical, wherein the individual injection step (S200) and the simultaneous injection step (S300) are performed within one combustion cycle, and injections of the multiple injectors do not overlap each other, except at the simultaneous injection step (S300). an injection time determination step (S100) in which a controller determines whether it is necessary for multiple injectors arranged on an intake port to inject fuel towards one and the same combustion chamber according to a combustion cycle of a combustion chamber ; an individual injection step (S200) in which the controller controls each of the injectors to individually inject fuel in at least two subsequent injections, in a state in which intake valves are open, where the times for the first injections of each injector would not overlap each other; and characterised by a simultaneous injection step (S300) in which the controller controls each of the injectors to simultaneously inject fuel, in a state in which the intake valves are open, where the time for the last injections of each injector would be identical, wherein the individual injection step (S200) and the simultaneous injection step (S300) are performed within one combustion cycle, and injections of the multiple injectors do not overlap each other, except at the simultaneous injection step (S300).
A heating unit for a washing machine comprising a casing , a pump for pumping a washing liquid through the casing , a fuse , a thermally conductive element comprising a temperature regulator , the thermally conductive element being arranged for transferring heat to the washing liquid in the casing and the temperature regulator capable of supplying energy in the form of heat to the thermally conductive element , if a washing liquid target temperature in the casing is below a first temperature limit, wherein the fuse and the temperature regulator are arranged thermally conductive with the thermally conductive element , the fuse being electrically connected to the temperature regulator and configured to trigger and stop an energy supply to the temperature regulator , if a trigger temperature of the fuse is reached by the washing liquid in the casing , characterized in that the heating unit comprises an electronic temperature sensing device being arranged thermally conductive with the thermally conductive element and to detect, via the thermally conductive element , and record the temperature of the washing liquid that passes through the casing over time in order to provide information regarding a washing liquid temperature gradient, wherein if this temperature gradient is above a gradient limit the electronic temperature sensing device adapted for cutting off the energy supply by sending a corresponding signal to a controller in order to protect the fuse .
A process for heavy base oil production, comprising: a. performing an aromatic extraction of a first hydrocarbon feed to produce an aromatic extract, and a waxy raffinate for further solvent dewaxing; b. mixing the aromatic extract with a second hydrocarbon feed to make a mixed feed having greater than 2,000 wt ppm sulfur, wherein the second hydrocarbon feed has an initial boiling point from 250 °C to less than 340 °C, and wherein the mixed feed comprises from 5 to 20 wt% of the aromatic extract; c. feeding the mixed feed to a hydroprocessing unit configured to produce a heavy API Group II base oil having a kinematic viscosity at 70 °C from 22.6 to 100 mm 2 /s, wherein the waxy raffinate is solvent dewaxed and hydrofinished to produce a heavy API Group I base oil. a. performing an aromatic extraction of a first hydrocarbon feed to produce an aromatic extract, and a waxy raffinate for further solvent dewaxing; b. mixing the aromatic extract with a second hydrocarbon feed to make a mixed feed having greater than 2,000 wt ppm sulfur, wherein the second hydrocarbon feed has an initial boiling point from 250 °C to less than 340 °C, and wherein the mixed feed comprises from 5 to 20 wt% of the aromatic extract; c. feeding the mixed feed to a hydroprocessing unit configured to produce a heavy API Group II base oil having a kinematic viscosity at 70 °C from 22.6 to 100 mm 2 /s,
A humidified gases delivery device comprising a source of humidified gas, and a medical tube for providing humidified gas to a patient, a first connector attached to a first end of the medical tube and a second connector attached to a second end of the medical tube , the medical tube comprising: an elongate conduit having a first opening as a humidified gases inlet for receiving humidified gases, a second opening as a humidified gases outlet for expelling humidified gases, a longitudinal axis, a lumen extending between the first opening and the second opening along the longitudinal axis, and a conduit wall , extending between the first opening and the second opening and surrounding the lumen , characterised in that the first opening is connected to a humidifier of the source of humidified gas by the first connector , and the elongate conduit is a single conduit and the conduit wall is stiffer adjacent the first opening than adjacent the second opening such that the conduit wall adjacent the first opening is configured to extend upwardly from the source of humidified gas to define a drain-back length, the drain-back length configured to drain condensate back towards the source of humidified gas. an elongate conduit having a first opening as a humidified gases inlet for receiving humidified gases, a second opening as a humidified gases outlet for expelling humidified gases, a longitudinal axis, a lumen extending between the first opening and the second opening along the longitudinal axis, and a conduit wall , extending between the first opening and the second opening and surrounding the lumen , characterised in that the first opening is connected to a humidifier of the source of humidified gas by the first connector , and the elongate conduit is a single conduit and the conduit wall is stiffer adjacent the first opening than adjacent the second opening such that the conduit wall adjacent the first opening is configured to extend upwardly from the source of humidified gas to define a drain-back length, the drain-back length configured to drain condensate back towards the source of humidified gas.
Method for determining the material moisture of a pyrotechnic and/or explosive substance (K), comprising the following steps: referencing the pyrotechnic and/or explosive substance using a referencing device by determining the material moisture of a material sample (P) of the pyrotechnic and/or explosive substance (K) on the basis of the mass of the material sample (P) (S10); determining the dielectric material constants (D Probe ) of the material sample (P) on the basis of the material moisture (S20); calibrating a first microwave sensor on the basis of the dielectric material constants (D Probe ) of the material sample (P) (S30); online measurement of the dielectric material constants (D mess1 ) of the pyrotechnic and/or explosive substance (K) by means of the first microwave sensor (S40); determining the material moisture of the pyrotechnic and/or explosive substance (K) on the basis of the dielectric material constants (D mess1 ) previously measured online (S50); drying the pyrotechnic and/or explosive substance (K) by means of a second microwave sensor (S60); and online measurement of the dielectric material constants (D mess2 ) of the substance (K) by means of the second microwave sensor (S70); redetermining the material moisture of the pyrotechnic and/or explosive substance (K) on the basis of the dielectric material constants (D mess2 ) previously measured online by means of the second microwave sensor (S80). referencing the pyrotechnic and/or explosive substance using a referencing device by determining the material moisture of a material sample (P) of the pyrotechnic and/or explosive substance (K) on the basis of the mass of the material sample (P) (S10); determining the dielectric material constants (D Probe ) of the material sample (P) on the basis of the material moisture (S20); calibrating a first microwave sensor on the basis of the dielectric material constants (D Probe ) of the material sample (P) (S30); online measurement of the dielectric material constants (D mess1 ) of the pyrotechnic and/or explosive substance (K) by means of the first microwave sensor (S40); determining the material moisture of the pyrotechnic and/or explosive substance (K) on the basis of the dielectric material constants (D mess1 ) previously measured online (S50); drying the pyrotechnic and/or explosive substance (K) by means of a second microwave sensor (S60); and online measurement of the dielectric material constants (D mess2 ) of the substance (K) by means of the second microwave sensor (S70); redetermining the material moisture of the pyrotechnic and/or explosive substance (K) on the basis of the dielectric material constants (D mess2 ) previously measured online by means of the second microwave sensor (S80).
A labeling unit for applying labels to containers , comprising at least one unwind unit for a label tape , a cutting rotor for cutting the label tape into individual labels and a vacuum transfer cylinder for transferring the labels to the containers, wherein the vacuum transfer cylinder comprises a plurality of replaceable interchangeable segments , on the outer contour surfaces of which the labels can be transported, the interchangeable segments being arranged between strips firmly connected to the vacuum transfer cylinder , the strips being designed as cutting surfaces for cooperating with the cutting rotor for cutting the label tape , and the strips are firmly connected to the vacuum transfer cylinder via retaining elements , and wherein the retaining elements have outer contour surfaces with openings by means of which a negative pressure can be applied.
A vehicle interior door panel , when mounted on a door, comprising a thermoelectric air conditioner comprising a conditioning duct having an intake end and a discharge end , a waste duct having an intake end and a discharge end , and a thermoelectric device having a first heat sink on a first side and a second heat sink on an opposite second side, the first heat sink being positioned in the conditioning duct , the second heat sink being positioned in the waste duct , the thermoelectric air conditioner being able to move air from a vehicle passenger cabin along the first side of the thermoelectric device to change the temperature of the air before discharging the air back into the passenger cabin through a discharge port at the discharge end of the conditioning duct , the thermoelectric air conditioner being further able to move additional air along the opposite second side of the thermoelectric device and discharge the additional air through a discharge port at the discharge end of the waste duct to a location outside the passenger cabin, wherein the amount of air moved along the first side is separately controllable from the amount of air moved along the second side, and characterized in that the discharge end of the waste duct is formed through a side wall of the door panel in a direction between forward and rearward sides of the door when the door is mounted on a vehicle. a thermoelectric air conditioner comprising a conditioning duct having an intake end and a discharge end , a waste duct having an intake end and a discharge end , and a thermoelectric device having a first heat sink on a first side and a second heat sink on an opposite second side, the first heat sink being positioned in the conditioning duct , the second heat sink being positioned in the waste duct , the thermoelectric air conditioner being able to move air from a vehicle passenger cabin along the first side of the thermoelectric device to change the temperature of the air before discharging the air back into the passenger cabin through a discharge port at the discharge end of the conditioning duct , the thermoelectric air conditioner being further able to move additional air along the opposite second side of the thermoelectric device and discharge the additional air through a discharge port at the discharge end of the waste duct to a location outside the passenger cabin, wherein the amount of air moved along the first side is separately controllable from the amount of air moved along the second side, and characterized in that the discharge end of the waste duct is formed through a side wall of the door panel in a direction between forward and rearward sides of the door when the door is mounted on a vehicle.
A winding device for winding up partial webs of a web-shaped material , having • a plurality of separate winding cores, on which the partial webs of the web-shaped material can be wound up to form independent windings , wherein the winding cores are located on the same winding shaft , • a transport roller, in particular, a contact roller , via which the partial webs can be guided, wherein the transport roller is arranged directly in front of the winding cores along the transport path of the partial webs and, in particular, is in contact with the winding cores or the windings , characterized in that at least one roller is provided, the surface of which can be adjusted with an adjusting force on the edges of the partial webs of the web-shaped material located on two adjacent windings . • a plurality of separate winding cores, on which the partial webs of the web-shaped material can be wound up to form independent windings , wherein the winding cores are located on the same winding shaft , • a transport roller, in particular, a contact roller , via which the partial webs can be guided, wherein the transport roller is arranged directly in front of the winding cores along the transport path of the partial webs and, in particular, is in contact with the winding cores or the windings ,
Cell connector for interconnecting at least two conductors and/or stranded wires , the cell connector being composed of at least one substantially strip-shaped element , comprising at least five portions (4.1, 4.2, 4.3, 4.4, 4.5) arranged one behind the other on the strip-shaped element in a longitudinal direction (L), characterized in that a first portion (4.1) forms a first half (5.1) of a closure element, a second portion (4.2) forms a first clamping surface (6.1), a third portion (4.3) forms a deflection element , a fourth portion (4.4) forms a second clamping surface (6.2) and a fifth portion (4.5) forms a second half (5.2) of the closure element, and the third portion (4.3) being designed to allow the first portion (4.1) and the second portion (4.2) to be folded over relative to the fourth portion (4.4) and fifth portion (4.5) about a folding axis in a width direction (B) running orthogonally to the longitudinal direction (L) and running through the third portion (4.3), so that, in a folded up state of the strip-shaped element , at least a portion of the first and the second clamping surface (6.1, 6.2) lie opposite one another substantially in a thickness direction (D) running orthogonally to the longitudinal direction (L) and the width direction (B) and thus form a receptacle for the conductors and/or stranded wires and, in the folded up state of the strip-shaped element , the first portion (4.1) and the fifth portion (4.5) can be interconnected in order to fix the at least one strip-shaped element in the folded up state. at least five portions (4.1, 4.2, 4.3, 4.4, 4.5) arranged one behind the other on the strip-shaped element in a longitudinal direction (L), characterized in that a first portion (4.1) forms a first half (5.1) of a closure element, a second portion (4.2) forms a first clamping surface (6.1), a third portion (4.3) forms a deflection element , a fourth portion (4.4) forms a second clamping surface (6.2) and a fifth portion (4.5) forms a second half (5.2) of the closure element, and the third portion (4.3) being designed to allow the first portion (4.1) and the second portion (4.2) to be folded over relative to the fourth portion (4.4) and fifth portion (4.5) about a folding axis in a width direction (B) running orthogonally to the longitudinal direction (L) and running through the third portion (4.3), so that, in a folded up state of the strip-shaped element , at least a portion of the first and the second clamping surface (6.1, 6.2) lie opposite one another substantially in a thickness direction (D) running orthogonally to the longitudinal direction (L) and the width direction (B) and thus form a receptacle for the conductors and/or stranded wires and, in the folded up state of the strip-shaped element , the first portion (4.1) and the fifth portion (4.5) can be interconnected in order to fix the at least one strip-shaped element in the folded up state.