mhurhangee/patent-ind-claim-en huggingface dataset:
A continuous heat treatment device for a sintered Nd-Fe-B magnet comprising, in this order: a first heat treatment chamber, a first cooling chamber, a second heat treatment chamber, a second cooling chamber, wherein the first heat treatment chamber, the first cooling chamber, the second heat treatment chamber, and the second cooling chamber are disposed in sequence by means of airtight devices, and a transfer system disposed among the first heat treatment chamber, the first cooling chamber, the second heat treatment chamber, and the second cooling chamber to transfer the sintered Nd-Fe-B magnet, wherein: both the first cooling chamber and the second cooling chamber adopt an air cooling system; a cooling air temperature of the first cooling chamber is 25 °C or above and differs from a heat treatment temperature of the first heat treatment chamber by at least 450 °C; a cooling air temperature of the second cooling chamber is 25 °C or above and differs from a heat treatment temperature of the second heat treatment chamber by at least 300 °C; and a pressure of the first cooling chamber and a pressure of the second cooling chamber are 50 kPa-100 kPa. a first heat treatment chamber, a first cooling chamber, a second heat treatment chamber, a second cooling chamber, wherein the first heat treatment chamber, the first cooling chamber, the second heat treatment chamber, and the second cooling chamber are disposed in sequence by means of airtight devices, and a transfer system disposed among the first heat treatment chamber, the first cooling chamber, the second heat treatment chamber, and the second cooling chamber to transfer the sintered Nd-Fe-B magnet, wherein: both the first cooling chamber and the second cooling chamber adopt an air cooling system; a cooling air temperature of the first cooling chamber is 25 °C or above and differs from a heat treatment temperature of the first heat treatment chamber by at least 450 °C; a cooling air temperature of the second cooling chamber is 25 °C or above and differs from a heat treatment temperature of the second heat treatment chamber by at least 300 °C; and a pressure of the first cooling chamber and a pressure of the second cooling chamber are 50 kPa-100 kPa. both the first cooling chamber and the second cooling chamber adopt an air cooling system; a cooling air temperature of the first cooling chamber is 25 °C or above and differs from a heat treatment temperature of the first heat treatment chamber by at least 450 °C; a cooling air temperature of the second cooling chamber is 25 °C or above and differs from a heat treatment temperature of the second heat treatment chamber by at least 300 °C; and a pressure of the first cooling chamber and a pressure of the second cooling chamber are 50 kPa-100 kPa.
Casing of a turbomachine, comprising at least a first casing portion , which comprises a first material, and a second casing portion , which comprises a second material that is different from the first material, the second casing portion comprising a recirculation structure as casing structuring which is intended for controlling the main flow through the turbomachine and comprises flowguide elements , characterized in that the second casing portion is force-fittingly connected to the first casing portion by means of a radial press fit, the first material having a first coefficient of thermal expansion (α 1 ) and the second material having a second coefficient of thermal expansion (α 2 ) that is different from the first coefficient of thermal expansion (α 1 ).
Device for adjusting the position of a window pane supported by a window regulator mounted on a door or other body member of a motor vehicle, comprising a slider that includes a base plate intended to be slidably mounted along a guide rail of the window regulator, and a movable jaw connected to the base plate , between which a receiving space for receiving a lower edge of said window pane (P) is defined, a holding member for holding a pair of driving cables of the window regulator being associated with the base plate , which holding member can be moved with respect to the base plate along a direction generally parallel to said guide rail as a result of the rotation of a threaded member associated with the base plate and with said holding member , caused by a tool operated from the outside of said door or other body member of the motor vehicle, in order to adjust the position in height of the base plate with respect to said holding member , wherein said holding member is slidably mounted with respect to the base plate by means of corresponding and mutually slidable guide formations formed in the base plate and in the holding member along a direction parallel to said threaded member , said threaded member being rotatably supported by a first arm that projects from the base plate , and having a threaded stem that engages a nut screw formed in a bracket that extends cantilever from said holding member , characterized in that the base plate and the holding member are configured to be arranged on the inside of the door, and said arm and said bracket are configured to extend below the window pane (P) to the outside of said door or other body member of the motor vehicle.
A storage stable polyol premix composition comprising a carboxylic acid having from 1 to 5 carbon atoms wherein the carboxylic acid is formic acid, a polyol, a silicone surfactant, an amine catalyst, and at least one blowing agent comprising HFO-1234ze and/or HFCO-1233zd, wherein 3 to 5.5 equivalents of the carboxylic acid are employed per equivalent of catalytic nitrogen sites of the amine catalyst, with the proviso that a foam prepared from the composition has a Storage Stable Value of at least 7 days.
Method for carrying out a hygiene program for a laundry treatment appliance , wherein the laundry treatment appliance comprises a drum for receiving laundry , a pump unit for pumping nebulised water into the drum , a heat pump for controlling the temperature of process air, a heating unit for heating the process air, a process air blower for conveying the process air through a circuit out of the drum and through the heat pump and the heating unit and back into the drum , a temperature sensor for providing a temperature signal representing a temperature in the drum , a humidity sensor for providing a humidity signal representing an air humidity in the drum and a control device for controlling the hygiene program, and wherein the method comprises the following steps: outputting a pumping signal to an interface with the pump unit in order to cause pumping of nebulised water into the drum ; outputting a switch-on signal to an interface with the heat pump in order to cause warming of the process air; outputting a heating signal to an interface with the heating unit in order to cause heating of the process air; outputting a process air signal to an interface with the process air blower in order to pump the process air through the circuit; outputting a switch-off signal to the interface with the heat pump in order to switch the heat pump off when the temperature signal represents a temperature corresponding to a predetermined hygiene temperature value; and outputting a pump switch-off signal to the pump unit in order to switch the pump unit off when the humidity signal represents a humidity corresponding to a predetermined hygiene humidity value. outputting a pumping signal to an interface with the pump unit in order to cause pumping of nebulised water into the drum ; outputting a switch-on signal to an interface with the heat pump in order to cause warming of the process air; outputting a heating signal to an interface with the heating unit in order to cause heating of the process air; outputting a process air signal to an interface with the process air blower in order to pump the process air through the circuit; outputting a switch-off signal to the interface with the heat pump in order to switch the heat pump off when the temperature signal represents a temperature corresponding to a predetermined hygiene temperature value; and outputting a pump switch-off signal to the pump unit in order to switch the pump unit off when the humidity signal represents a humidity corresponding to a predetermined hygiene humidity value.
An optical cable comprising an optical core and an external sheath surrounding said optical core , wherein said external sheath comprises: - an inner layer circumferentially enclosing said optical core ; and - an outer layer circumferentially enclosing said inner layer and comprising at least one cavity accessible from outside said external sheath and extending through at least a portion of the thickness of said outer layer , wherein said inner layer and said outer layer are made of a first material having a first tensile strength and said at least one cavity of said outer layer is filled with a second material having a second tensile strength lower than said first tensile strength. - an inner layer circumferentially enclosing said optical core ; and - an outer layer circumferentially enclosing said inner layer and comprising at least one cavity accessible from outside said external sheath and extending through at least a portion of the thickness of said outer layer ,
A method for implementing positioning measurement, characterized in that , the method comprises the steps of: A. determining a Timing Advance, TA, report format according to obtained information on whether a user equipment supports measurement of the difference between reception time and transmission time and information on whether a base station supports combining of measurement of the difference between reception time and transmission time of the base station and measurement of the difference between reception time and transmission time of the user equipment in an Enhanced Cell Identity, E-CID, positioning process of the user equipment ; and B. the base station returning a positioning measurement result to an Evolved Serving Mobile Location Center, E-SMLC, in the determined TA report format after performing E-CID positioning measurement . A. determining a Timing Advance, TA, report format according to obtained information on whether a user equipment supports measurement of the difference between reception time and transmission time and information on whether a base station supports combining of measurement of the difference between reception time and transmission time of the base station and measurement of the difference between reception time and transmission time of the user equipment in an Enhanced Cell Identity, E-CID, positioning process of the user equipment ; and B. the base station returning a positioning measurement result to an Evolved Serving Mobile Location Center, E-SMLC, in the determined TA report format after performing E-CID positioning measurement .
Tank for an operating liquid of a motor vehicle , with a tank wall composed of plastic, having an opening , and with an insert composed of metal arranged at the opening , and a flexible sealing element for the liquid-tight connection of the tank wall and of the insert to one another, wherein the flexible sealing element is a diaphragm , wherein a first section of the diaphragm is connected cohesively to the tank wall , and a second section of the diaphragm is connected cohesively to the metallic insert , wherein the diaphragm has, between the first section and the second section , a flexibility zone , wherein the flexibility zone is not in contact with the tank wall and the insert , and which compensates relative displacements owing to thermal expansions between the tank wall and the insert , wherein relative displacements between the tank wall and the insert occur at least in sections owing to thermal expansions of the tank wall and of the insert , and the flexible sealing element is designed such that, on the insert and on the tank wall , respective sealing surfaces are formed against which the sealing element bears independently of the relative displacements .
Use of a wrought aluminum alloy in a T8 temper with the following composition, in wt%, Cu: 3.6 - 4.4 Mg: 1.2 - 1.4 Mn: 0.5 - 0.8 Zr: 0.07 - 0.15 Ti: 0.01- 0.05 Si ≤ 0.20 Fe ≤ 0.20 Zn ≤ 0.25 unavoidable impurities < 0.05 the remainder being aluminum, in an application wherein said product is kept at temperatures of 100°C to 250°C for a significant period of at least 200 hours. Cu: 3.6 - 4.4 Mg: 1.2 - 1.4 Mn: 0.5 - 0.8 Zr: 0.07 - 0.15 Ti: 0.01- 0.05 Si ≤ 0.20 Fe ≤ 0.20 Zn ≤ 0.25 unavoidable impurities < 0.05 the remainder being aluminum, in an application wherein said product is kept at temperatures of 100°C to 250°C for a significant period of at least 200 hours.
A method for petroleum hydrocarbon degradation in water using fungi, characterized in that petroleum hydrocarbons to be degraded are brought into contact with an inoculum formed from at least the following components: ▪ fungi strains isolated from sand and water of Baltic Sea coast samples, wherein the fungi strains are selected from Clonostachys rosea, Alternaria rosae or Emericellopsis maritima ▪ an environmentally friendly support material that acts as a solid substrate for the fungi and is a natural sorbent of petroleum hydrocarbons, wherein the support material on which at least one fungi strain is immobilized, is selected from: wheat straw, oat straw, rice straw, corn straw, barley straw, cereal straw, wheat bran or sawdust, and wherein a fungi strain Emericellopsis sp . is applied additionally for microflora restoration. ▪ fungi strains isolated from sand and water of Baltic Sea coast samples, wherein the fungi strains are selected from Clonostachys rosea, Alternaria rosae or Emericellopsis maritima ▪ an environmentally friendly support material that acts as a solid substrate for the fungi and is a natural sorbent of petroleum hydrocarbons, wherein the support material on which at least one fungi strain is immobilized, is selected from: wheat straw, oat straw, rice straw, corn straw, barley straw, cereal straw, wheat bran or sawdust,
A cerclage atrial defibrillator, comprising: a cerclage wire ; a coronary sinus tube provided with a lumen formed therein which is adapted for insertion of the cerclage wire thereinto, the coronary sinus tube is adapted for being inserted into the coronary sinus; and a tricuspid valve tube provided with a lumen formed therein, wherein the tricuspid valve tube is adapted for traversing the tricuspid valve and adapted for protecting the tricuspid valve and tissue of the interventricular septum; characterized in that the cerclage atrial defibrillator further comprises: a defibrillator lead adapted to be positioned in the superior vena cava or the left atrium to treat atrial fibrillation. a cerclage wire ; a coronary sinus tube provided with a lumen formed therein which is adapted for insertion of the cerclage wire thereinto, the coronary sinus tube is adapted for being inserted into the coronary sinus; and a tricuspid valve tube provided with a lumen formed therein, wherein the tricuspid valve tube is adapted for traversing the tricuspid valve and adapted for protecting the tricuspid valve and tissue of the interventricular septum; characterized in that the cerclage atrial defibrillator further comprises: a defibrillator lead adapted to be positioned in the superior vena cava or the left atrium to treat atrial fibrillation.
An ultrasonic sonotrode , comprising: a body having nodal and anti-nodal regions, and configured to propagate ultrasonic waves received at a nodal region along a first direction (D1); a transducer connected to a nodal region at one side of the sonotrode , and an opposing structure coupled to a nodal region at another side of the sonotrode that is opposite the nodal region receiving the transducer , wherein the sonotrode further comprises a plurality of redirecting features formed in the body ; wherein the redirecting features comprise elongated slots formed through the body and extending along a second direction (D2), and are configured to cause received ultrasonic waves propagating along the first direction (D1) to propagate along the second direction (D2), perpendicular to the first direction (D1), upon encountering one or more of the redirecting features ; wherein the body is further configured to stretch and compress along the second direction (D2) based on corresponding peaks and valleys of the waves propagating along the second direction (D2); and at least one ultrasonic welding surface at an anti-nodal region of the body configured to oscillate based on the stretching and compressing. a transducer connected to a nodal region at one side of the sonotrode , and an opposing structure coupled to a nodal region at another side of the sonotrode that is opposite the nodal region receiving the transducer , wherein the sonotrode further comprises a plurality of redirecting features formed in the body ; wherein the redirecting features comprise elongated slots formed through the body and extending along a second direction (D2), and are configured to cause received ultrasonic waves propagating along the first direction (D1) to propagate along the second direction (D2), perpendicular to the first direction (D1), upon encountering one or more of the redirecting features ; wherein the body is further configured to stretch and compress along the second direction (D2) based on corresponding peaks and valleys of the waves propagating along the second direction (D2); and at least one ultrasonic welding surface at an anti-nodal region of the body configured to oscillate based on the stretching and compressing.
Motor vehicle latch, in particular a motor vehicle door latch, comprising a locking mechanism consisting substantially of a catch and a pawl as locking mechanism components , also comprising a motor-driven control member for the locking mechanism , and comprising a sensor which scans movements of the locking mechanism , the single sensor being configured to scan both axial and radial movements of the locking mechanism component , the sensor interacting with a contour , the contour being provided on the pawl , characterized in that the pawl is rotatably mounted on the control member .
A method for producing an aluminum-scandium alloy having a scandium content of 0.41-4 wt. %, comprising the following steps of: a) melting aluminum and a mixture of salts containing sodium, potassium and aluminum fluorides, wherein the cryolite ratio of the mixture of potassium, sodium and aluminum fluorides is maintained within the range of 1.3 to 1.7 and the content of sodium fluoride at 1-15 wt. %; b) carrying out, while continuously supplying scandium oxide to the molten mixture of salts, simultaneous aluminothermic reduction of scandium from its oxide and electrolytic decomposition of the formed alumina, wherein the concentration of scandium oxide in the molten mixture of salts is maintained at 1 to 8 wt. %; c) recovering at least a portion of the obtained aluminum-scandium alloy; d) adding aluminum and repeating steps b) - c); wherein, with the use of said molten mixture of salts, the step d) is performed repeatedly in at least four cycles of producing aluminum-scandium alloy. a) melting aluminum and a mixture of salts containing sodium, potassium and aluminum fluorides, wherein the cryolite ratio of the mixture of potassium, sodium and aluminum fluorides is maintained within the range of 1.3 to 1.7 and the content of sodium fluoride at 1-15 wt. %; b) carrying out, while continuously supplying scandium oxide to the molten mixture of salts, simultaneous aluminothermic reduction of scandium from its oxide and electrolytic decomposition of the formed alumina, wherein the concentration of scandium oxide in the molten mixture of salts is maintained at 1 to 8 wt. %; c) recovering at least a portion of the obtained aluminum-scandium alloy; d) adding aluminum and repeating steps b) - c); wherein, with the use of said molten mixture of salts, the step d) is performed repeatedly in at least four cycles of producing aluminum-scandium alloy.
Acoustic and thermal shield for a motor vehicle, said shield comprising: * a thermo-compressed porous three-dimensional shell based on glass fibers, said fibers being joined together by a binding agent, * a foam-based inner spring layer - in particular made of polyurethane - elastically compressible, said shield additionally having the following features: * said layer is produced by reaction injection molding (RIM), said layer overmolding said shell, * said shell has a porosity arranged in order to enable said foam to penetrate a fraction of the thickness of said shell, so as to create a leaktight skin , such that said shield: o is acoustically insulating according to a mass-spring principle, said shield additionally having acoustic absorption properties conferred by the fraction of thickness of said shell not penetrated by said foam and remaining porous, ∘ has the rigidity thereof increased by the reinforcement brought by said fibers coated by said foam, said shield being characterised in that : * the binding agent is based on polypropylene, * the shell comprises between 45 and 55% by weight of glass fibers. * a thermo-compressed porous three-dimensional shell based on glass fibers, said fibers being joined together by a binding agent, * a foam-based inner spring layer - in particular made of polyurethane - elastically compressible, * said layer is produced by reaction injection molding (RIM), said layer overmolding said shell, * said shell has a porosity arranged in order to enable said foam to penetrate a fraction of the thickness of said shell, so as to create a leaktight skin , such that said shield: o is acoustically insulating according to a mass-spring principle, said shield additionally having acoustic absorption properties conferred by the fraction of thickness of said shell not penetrated by said foam and remaining porous, ∘ has the rigidity thereof increased by the reinforcement brought by said fibers coated by said foam, o is acoustically insulating according to a mass-spring principle, said shield additionally having acoustic absorption properties conferred by the fraction of thickness of said shell not penetrated by said foam and remaining porous, ∘ has the rigidity thereof increased by the reinforcement brought by said fibers coated by said foam, * the binding agent is based on polypropylene, * the shell comprises between 45 and 55% by weight of glass fibers.
Door handle for a vehicle with a base part which has a recess with at least one side wall (13.1), wherein an electronic unit can be arranged in the recess , and wherein the electronic unit has a printed circuit board which can be fitted with electronic components , and wherein a contact of the printed circuit board is provided by at least one line , and can be connected to the vehicle's electrical system through this line , characterized in that, the line protrudes from the recess in a transition region and projects beyond at least one side wall (13.1) of the recess wherein the line in the transition area does not pass through a side wall of the recess in the base part, wherein an optical display element is present, wherein the display element is arranged on the base part outside the recess . wherein an electronic unit can be arranged in the recess , and wherein the electronic unit has a printed circuit board which can be fitted with electronic components , and wherein a contact of the printed circuit board is provided by at least one line , and can be connected to the vehicle's electrical system through this line , characterized in that, the line protrudes from the recess in a transition region and projects beyond at least one side wall (13.1) of the recess wherein the line in the transition area does not pass through a side wall of the recess in the base part, wherein an optical display element is present, wherein the display element is arranged on the base part outside the recess .