mhurhangee/patent-ind-claim-en huggingface dataset:
Process for manufacturing a wrought product made of aluminum alloy comprising the following steps: a. casting a rolling ingot made of alloy comprising: 2.1 to 2.8% by weight of Cu; 1.1 to 1.7% by weight of Li; 0.2 to 0.9% by weight of Mg; 0.2 to 0.6% by weight of Mn; 0.01 to 0.2% by weight of Ti; less than 0.1% by weight of Ag; less than 0.08% by weight of Zr; a quantity of Fe and of Si less than or equal to 0.1% by weight each, and inevitable impurities at a concentration less than or equal to 0.05% by weight each and 0.15% by weight in total; the rest aluminum; b. homogenizing said rolling ingot at 480-520°C for 5 to 60 hours; c. hot and optionally cold rolling said homogenized rolling ingot into sheet metal with a thickness between 0.8 and 12.7 mm; d. solution heat treatment of the sheet metal at 470-520°C for 15 minutes to 4 hours; e. quenching the solution heat treated sheet metal; f. controlled stretching of the solution heat treated and quenched sheet metal with a permanent deformation of 1 to 6%; g. aging of the stretched sheet metal by heating to a temperature of at least 160°C, preferably at least 165°C, for a maximum time of 30 hours, preferably 25 hours. a. casting a rolling ingot made of alloy comprising: 2.1 to 2.8% by weight of Cu; 1.1 to 1.7% by weight of Li; 0.2 to 0.9% by weight of Mg; 0.2 to 0.6% by weight of Mn; 0.01 to 0.2% by weight of Ti; less than 0.1% by weight of Ag; less than 0.08% by weight of Zr; a quantity of Fe and of Si less than or equal to 0.1% by weight each, and inevitable impurities at a concentration less than or equal to 0.05% by weight each and 0.15% by weight in total; the rest aluminum; 2.1 to 2.8% by weight of Cu; 1.1 to 1.7% by weight of Li; 0.2 to 0.9% by weight of Mg; 0.2 to 0.6% by weight of Mn; 0.01 to 0.2% by weight of Ti; less than 0.1% by weight of Ag; less than 0.08% by weight of Zr; a quantity of Fe and of Si less than or equal to 0.1% by weight each, and inevitable impurities at a concentration less than or equal to 0.05% by weight each and 0.15% by weight in total; the rest aluminum; b. homogenizing said rolling ingot at 480-520°C for 5 to 60 hours; c. hot and optionally cold rolling said homogenized rolling ingot into sheet metal with a thickness between 0.8 and 12.7 mm; d. solution heat treatment of the sheet metal at 470-520°C for 15 minutes to 4 hours; e. quenching the solution heat treated sheet metal; f. controlled stretching of the solution heat treated and quenched sheet metal with a permanent deformation of 1 to 6%; g. aging of the stretched sheet metal by heating to a temperature of at least 160°C, preferably at least 165°C, for a maximum time of 30 hours, preferably 25 hours.
Pressure cleaning device having a pressure-generating unit for pressurizing a fluid and for delivering a pressurized fluid via a hose attachment , preferably via a manual gun or via a cleaning spraying means, wherein the pressure cleaning device is operable in at least two different operating modes, wherein the pressure-generating unit is assigned an electrical pressure sensor for ascertaining a respectively current operating pressure and/or a flow-rate sensor for ascertaining a respectively current flow rate and a control device , wherein the control device is configured to control the pressure-generating unit on the basis of a respectively set operating mode in a manner dependent on a respectively current ascertained operating pressure and/or on a respectively current ascertained flow rate, characterized in that the control device is configured to deactivate the pressure-generating unit in the case of a predefined dry-running operating pressure, which signals an empty storage tank , occurring.
A method of reducing a time required for processing a dough which comprises gluten and which is provided for producing baked goods by speeding-up dough relaxation, the method comprising: a step of exerting mechanical force on the dough ; decreasing a resistance of the dough against deformation after or during said step of exerting mechanical force on the dough by applying an electromagnetic field to the dough ; another step of exerting mechanical force on the dough after applying the electromagnetic field to the dough ; and baking the dough after said other step of exerting mechanical force on the dough ; wherein the steps of exerting mechanical force on the dough are selected from a group consisting of kneading, shaping and dividing the dough ; wherein the electromagnetic field is applied to the dough for a period of less than 30 s, preferably of less than 15 s, and more preferably of less than 5 s; and wherein the dough rests less than 10 minutes, preferably less than 5 minutes, and more preferably less than 1 minute between the steps of exerting mechanical force on the dough . a step of exerting mechanical force on the dough ; decreasing a resistance of the dough against deformation after or during said step of exerting mechanical force on the dough by applying an electromagnetic field to the dough ; another step of exerting mechanical force on the dough after applying the electromagnetic field to the dough ; and baking the dough after said other step of exerting mechanical force on the dough ; wherein the steps of exerting mechanical force on the dough are selected from a group consisting of kneading, shaping and dividing the dough ; wherein the electromagnetic field is applied to the dough for a period of less than 30 s, preferably of less than 15 s, and more preferably of less than 5 s; and wherein the dough rests less than 10 minutes, preferably less than 5 minutes, and more preferably less than 1 minute between the steps of exerting mechanical force on the dough .
Vehicle window for separating a vehicle interior from outer surroundings, comprising a glass pane with a light guide body made of glass on a region of the interior-side surface (I) of the glass pane , wherein the surface (e) of the light guide body facing the glass pane and the surface (a) facing away from the glass pane enclose a wedge angle (γ) such that the thickness of the light guide body decreases in the direction from a lower edge (U) to an upper edge (O) of the glass pane , wherein the light guide body is secured to the interior-side surface (I) of the glass pane by means of laser welding, wherein the surface (e) of the light guide body facing the glass pane is positioned with its full surface against the region of the interior-side surface (I) of the glass pane and is joined to the interior-side surface (I) by means of a circumferential peripheral weld, characterised in that along the weld, an adhesion promoter that contains glass frits is arranged between the glass pane and the light guide body .
A pipe connection fitting comprising: a gasket holder ring ; a seal positionable within the gasket holder ring ; a flap ring having a first ring portion with a plurality of pivotable tabs extending therefrom, each of the plurality of tabs including a hinge portion connected to the first ring portion of the flap ring ; a grip ring positionable adjacent the flap ring ; and a terminal housing configured to slidingly engage with the gasket holder ring , wherein each of the hinge portions permits pivoting movement of each tab when engaged by the terminal housing during installation. a gasket holder ring ; a seal positionable within the gasket holder ring ; a flap ring having a first ring portion with a plurality of pivotable tabs extending therefrom, each of the plurality of tabs including a hinge portion connected to the first ring portion of the flap ring ; a grip ring positionable adjacent the flap ring ; and a terminal housing configured to slidingly engage with the gasket holder ring , wherein each of the hinge portions permits pivoting movement of each tab when engaged by the terminal housing during installation.
A system to use machine learning to perform sound source localization confidence estimation, the system comprising: memory ; and one or more processors coupled to the memory and configured to: perform a sound source localization (SSL) operation with regard to a sound to determine an SSL direction estimate , which indicates an estimated direction from which the sound is received, and an SSL-based confidence associated with the SSL direction estimate based at least in part on a multi-channel representation of the sound , the SSL-based confidence indicating an estimated probability that the sound is received from the estimated direction, the multi-channel representation including a plurality of representations of the sound that are detected by a plurality of respective sensors (206A-206K); automatically determine one or more additional characteristics of the sound; and perform a machine learning (ML) operation based at least in part on the SSL direction estimate , the SSL-based confidence , and the one or more additional characteristics to determine an ML-based confidence associated with the SSL direction estimate. memory ; and one or more processors coupled to the memory and configured to: perform a sound source localization (SSL) operation with regard to a sound to determine an SSL direction estimate , which indicates an estimated direction from which the sound is received, and an SSL-based confidence associated with the SSL direction estimate based at least in part on a multi-channel representation of the sound , the SSL-based confidence indicating an estimated probability that the sound is received from the estimated direction, the multi-channel representation including a plurality of representations of the sound that are detected by a plurality of respective sensors (206A-206K); automatically determine one or more additional characteristics of the sound; and perform a machine learning (ML) operation based at least in part on the SSL direction estimate , the SSL-based confidence , and the one or more additional characteristics to determine an ML-based confidence associated with the SSL direction estimate. perform a sound source localization (SSL) operation with regard to a sound to determine an SSL direction estimate , which indicates an estimated direction from which the sound is received, and an SSL-based confidence associated with the SSL direction estimate based at least in part on a multi-channel representation of the sound , the SSL-based confidence indicating an estimated probability that the sound is received from the estimated direction, the multi-channel representation including a plurality of representations of the sound that are detected by a plurality of respective sensors (206A-206K); automatically determine one or more additional characteristics of the sound; and perform a machine learning (ML) operation based at least in part on the SSL direction estimate , the SSL-based confidence , and the one or more additional characteristics to determine an ML-based confidence associated with the SSL direction estimate.
Sound enhancement method for cochlear implant sound processors for mimicking activating medial olivocochear (MOC) efferents, the method comprising the steps of: - capturing at least an acoustic signal by means of a microphone of one of two interconnected sound processors, - breaking down the acoustic signal into frequency bands, by means of the sound processor capturing the acoustic signal, and - respectively extracting for each frequency band an envelope, by means of the sound processor capturing the acoustic signal, the method being characterised by further comprising the steps of: - amplifying the envelope by compression techniques, by means of the sound processor capturing the acoustic signal for obtaining an amplified envelope, said amplification comprising in turn modifying a gain value of the amplification according to an energy of an output signal of the other sound processor, wherein the relationship between the envelope and the amplified envelope is non-linear and the higher the energy of the output signal of the other sound processor is the more linear and the lower the gain to low level sound of the amplification is and vice versa so that the greater the contralateral output energy, the more linear the compressor. - capturing at least an acoustic signal by means of a microphone of one of two interconnected sound processors, - breaking down the acoustic signal into frequency bands, by means of the sound processor capturing the acoustic signal, and - respectively extracting for each frequency band an envelope, by means of the sound processor capturing the acoustic signal, - amplifying the envelope by compression techniques, by means of the sound processor capturing the acoustic signal for obtaining an amplified envelope, said amplification comprising in turn modifying a gain value of the amplification according to an energy of an output signal of the other sound processor,
A vacuum device, in particular a vacuum pump, comprising a device component ; and an electronic device for controlling and/or regulating the device component , wherein the device component has a digital component-specific data set , and wherein the electronic device is connected to the device component and is configured to read the component-specific data set of the device component , characterized in that the component-specific data set is encrypted by means of a private key ; and the electronic device has a public key , which is associated with the private key , to decrypt the encrypted component-specific data set prior to the reading. a device component ; and an electronic device for controlling and/or regulating the device component , wherein the device component has a digital component-specific data set , and wherein the electronic device is connected to the device component and is configured to read the component-specific data set of the device component , characterized in that the component-specific data set is encrypted by means of a private key ; and the electronic device has a public key , which is associated with the private key , to decrypt the encrypted component-specific data set prior to the reading.
Retaining apparatus having a) a mount which has a receptacle , b) a pin which is guided in a longitudinally displaceable manner in the receptacle of the mount , which is subjected to spring force and which has a pin head , wherein the pin head protrudes out of the receptacle of the mount , c) a centring device , wherein the centring device is arranged on the pin in a non-displaceable manner and is provided with a restoring force within the receptacle of the mount , said restoring force being directed against the mount , and the centring device is composed of at least one tab , but is preferably composed of at least two tabs which are arranged on the pin substantially equidistantly over the circumference of the latter, and the at least one tab can be pivoted to produce a restoring force against the pin , characterized in that the at least one tab is designed in such a way that, when the pin is arranged within the receptacle of the mount , said tab contacts an inner wall of the mount with a contact area , wherein the contact area runs parallel to the inner wall . a) a mount which has a receptacle , b) a pin which is guided in a longitudinally displaceable manner in the receptacle of the mount , which is subjected to spring force and which has a pin head , wherein the pin head protrudes out of the receptacle of the mount , c) a centring device ,
A first network apparatus used as a path computation client, PCC, for sharing network resources, said first network apparatus comprising: a transceiver unit configured to receive a first packet comprising an association object and path information from a second network apparatus used as a path computation element, PCE, wherein the association object comprises an association type indicating resource sharing and an association ID being an identifier of an association group; and a processing unit configured to: determine a first label switched path, LSP, according to the association ID in the association object; and create a second LSP according to the path information, wherein the second LSP shares network resources allocated to the first LSP with the first LSP; wherein the first LSP and the second LSP have different ingress nodes or egress nodes; and wherein the first LSP and the second LSP are per-domain LSP segments of a multi-domain end-to-end, E2E, path and the second LSP updates the first LSP during a re-computation of the E2E path. a transceiver unit configured to receive a first packet comprising an association object and path information from a second network apparatus used as a path computation element, PCE, wherein the association object comprises an association type indicating resource sharing and an association ID being an identifier of an association group; and a processing unit configured to: determine a first label switched path, LSP, according to the association ID in the association object; and create a second LSP according to the path information, wherein the second LSP shares network resources allocated to the first LSP with the first LSP; determine a first label switched path, LSP, according to the association ID in the association object; and create a second LSP according to the path information, wherein the second LSP shares network resources allocated to the first LSP with the first LSP; wherein the first LSP and the second LSP have different ingress nodes or egress nodes; and wherein the first LSP and the second LSP are per-domain LSP segments of a multi-domain end-to-end, E2E, path and the second LSP updates the first LSP during a re-computation of the E2E path.
A solution mining method for recovering alkali values from at least one cavity of a subterranean ore formation containing both sodium carbonate and sodium bicarbonate, which employs at least two solution mining phases using aqueous solvents differing in at least surface temperature, wherein said "surface temperature" identifies temperature of the aqueous solvents before injection into the cavity, and said method comprising: - carrying out a first phase (a) into the at least one cavity, said first phase comprising dissolving in situ at least a portion of ore from an ore face of the cavity into a first aqueous solvent to form a first liquor comprising sodium carbonate; and - subsequently carrying out a second phase (b) into the same cavity where the first phase took place, said second phase (b) comprising dissolving in situ at least a portion of the ore from the ore face into a second aqueous solvent to form a second liquor comprising sodium carbonate, said second aqueous solvent having surface temperature which has a higher value than that of the first aqueous solvent used in the first phase (a); and wherein the surface temperature for the first aqueous solvent is between 37.8 and 65.6°C, and the surface temperature for the second aqueous solvent is at least 3°C higher than the surface temperature of the first aqueous solvent and is between 60 and 80°C. - carrying out a first phase (a) into the at least one cavity, said first phase comprising dissolving in situ at least a portion of ore from an ore face of the cavity into a first aqueous solvent to form a first liquor comprising sodium carbonate; and - subsequently carrying out a second phase (b) into the same cavity where the first phase took place, said second phase (b) comprising dissolving in situ at least a portion of the ore from the ore face into a second aqueous solvent to form a second liquor comprising sodium carbonate, said second aqueous solvent having surface temperature which has a higher value than that of the first aqueous solvent used in the first phase (a);
A thin film transistor comprising: a gate electrode ; an active layer of oxide semiconductor on a substrate , the active layer including a channel region corresponding to the gate electrode , a source region , at one side of the channel region , and a drain region at the other side of the channel region ; a first diffused portion formed at an upper portion of the source region of the active layer, wherein the first diffused portion is disposed on a first conductive region of the source region ; and a second diffused portion formed at an upper portion of the drain region of the active layer , wherein the second diffused portion is disposed on a second conductive region of the drain region ; an interlayer insulating layer on the gate electrode , the first diffused portion and the second diffused portion , wherein the interlayer insulation layer is in contact with the first diffused portion and the second diffused portion ; wherein the first diffused portion and the second diffused portion include the oxide semiconductor and Si, wherein an amount of Si in each of the first diffused portion and the second diffused portion is from 1×10 22 atoms/cm 3 to 4×10 22 atoms/cm 3 , wherein the interlayer insulating layer is formed of silicon dioxide (SiO 2 ), and wherein the first conductive region of the source region and the second conductive region of the drain region are oxygen-deficient portions. a gate electrode ; an active layer of oxide semiconductor on a substrate , the active layer including a channel region corresponding to the gate electrode , a source region , at one side of the channel region , and a drain region at the other side of the channel region ; a first diffused portion formed at an upper portion of the source region of the active layer, wherein the first diffused portion is disposed on a first conductive region of the source region ; and a second diffused portion formed at an upper portion of the drain region of the active layer , wherein the second diffused portion is disposed on a second conductive region of the drain region ; an interlayer insulating layer on the gate electrode , the first diffused portion and the second diffused portion , wherein the interlayer insulation layer is in contact with the first diffused portion and the second diffused portion ; wherein the first diffused portion and the second diffused portion include the oxide semiconductor and Si, wherein an amount of Si in each of the first diffused portion and the second diffused portion is from 1×10 22 atoms/cm 3 to 4×10 22 atoms/cm 3 , wherein the interlayer insulating layer is formed of silicon dioxide (SiO 2 ), and wherein the first conductive region of the source region and the second conductive region of the drain region are oxygen-deficient portions.
Solar receiver heat transfer pressurized fluid system equipped with a pressure relief valve ; characterized in that it is further equipped with a trapping device for separating liquid droplets from a pressurized gas released by the pressure relief valve and for capturing said liquid droplets, said trapping device comprising, in use : - a horizontal pipe ; - a liquid trap element extending from the horizontal pipe and capable to catch the separated liquid droplets ; - a vertical exhaust pipe connected to the horizontal pipe substantially in a perpendicular manner and having an open end for discharging in the atmosphere the gas released by the pressure relief valve ; the horizontal pipe being provided by a first connection means for removably connecting at a first end to the pressure relief valve and by a second connection means for removably connecting at a second end to the liquid trap element , the vertical exhaust pipe being connected to the horizontal pipe between the first end removably connectable to the pressure relief valve and the second end removably connectable to the liquid trap element . - a horizontal pipe ; - a liquid trap element extending from the horizontal pipe and capable to catch the separated liquid droplets ; - a vertical exhaust pipe connected to the horizontal pipe substantially in a perpendicular manner and having an open end for discharging in the atmosphere the gas released by the pressure relief valve ;