mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement for shifting a transmission , wherein the arrangement comprises: - at least two power switching stages (2.1, 2.2) for a respective actuator (6.1, 6.2) for shifting a respective shift fork or sliding sleeve of the transmission between a neutral position and at least one engaged position, - a control device for actuating the power switching stages (2.1, 2.2), wherein each power switching stage (2.1, 2.2) is assigned a respective enable stage (5.1, 5.2) that selectively connects or disconnects the respective power switching stage (2.1, 2.2) to or from a voltage supply , wherein the enable stages (5.1, 5.2) are likewise connected to the control device and are able to be controlled thereby by means of enable signals (F1, F2), wherein the control device is configured in such a way that no enable signal (F1, F2) is activated or only exactly one enable signal (F1, F2) is activated, the assigned actuator (6.1, 6.2) of which is able to be actuated in a functionally safe manner in a current driving situation, and wherein each power switching stage (2.1, 2.2) is also assigned a respective actuator driver (3.1, 3.2), via which the power switching stage (2.1, 2.2) is connected to the control device , wherein the control device is designed, if all the shift forks or sliding sleeves are in the neutral position, to switch on the enable signal (F1, F2) for an assigned shift fork or sliding sleeve if the rotational speed of an assigned gear (S1 to S4) is synchronous with a motor rotational speed of a drive motor within a predefined tolerance window. - at least two power switching stages (2.1, 2.2) for a respective actuator (6.1, 6.2) for shifting a respective shift fork or sliding sleeve of the transmission between a neutral position and at least one engaged position, - a control device for actuating the power switching stages (2.1, 2.2), wherein each power switching stage (2.1, 2.2) is assigned a respective enable stage (5.1, 5.2) that selectively connects or disconnects the respective power switching stage (2.1, 2.2) to or from a voltage supply , wherein the enable stages (5.1, 5.2) are likewise connected to the control device and are able to be controlled thereby by means of enable signals (F1, F2), wherein the control device is configured in such a way that no enable signal (F1, F2) is activated or only exactly one enable signal (F1, F2) is activated, the assigned actuator (6.1, 6.2) of which is able to be actuated in a functionally safe manner in a current driving situation, and wherein each power switching stage (2.1, 2.2) is also assigned a respective actuator driver (3.1, 3.2), via which the power switching stage (2.1, 2.2) is connected to the control device , wherein the control device is designed, if all the shift forks or sliding sleeves are in the neutral position, to switch on the enable signal (F1, F2) for an assigned shift fork or sliding sleeve if the rotational speed of an assigned gear (S1 to S4) is synchronous with a motor rotational speed of a drive motor within a predefined tolerance window.
A sanitary system having a sanitary element , particularly a drainage element, provided for being disposed in and/or on a tread surface of a sanitary facility, having a support arrangement by means of which the sanitary element can be supported in the installed condition and spaced apart from a foundation disposed below the tread surface at a height (H), the sanitary system comprising at least one elastic compensating element , by means of which the support arrangement can be connected indirectly to the foundation , and by means of which the height (H) between the sanitary element and the foundation can be elastically reduced for compensating for a lowering of the tread surface , characterized in that the compensating element is an axially elastic anchor. having a sanitary element , particularly a drainage element, provided for being disposed in and/or on a tread surface of a sanitary facility, having a support arrangement by means of which the sanitary element can be supported in the installed condition and spaced apart from a foundation disposed below the tread surface at a height (H), the sanitary system comprising at least one elastic compensating element , by means of which the support arrangement can be connected indirectly to the foundation , and by means of which the height (H) between the sanitary element and the foundation can be elastically reduced for compensating for a lowering of the tread surface , characterized in that the compensating element is an axially elastic anchor.
A method for programming a plurality of non-volatile analog neuromorphic memory cells based on a programming speed characteristic of the cell comprising: determining the programming speed characteristic of a neuromorphic memory cell; if the programming speed characteristic of the cell is identified as being fast, performing a first programming tuning algorithm on the cell comprising: adding a first amount of charge to a floating gate of the cell during a programming operation ; verifying the charge level on the floating gate of the cell ; and repeating the adding and verifying steps until a desired charge level on the floating gate of the cell is achieved ; and if the programming speed characteristic of the cell is identified as being slow, performing a second programming tuning algorithm on the cell comprising: adding a second amount of charge less than the first amount of charge to a floating gate of the cell during a programming operation ; verifying the charge level on the floating gate of the cell ; and repeating the adding and verifying steps until the desired charge level on the floating gate of the cell is achieved . determining the programming speed characteristic of a neuromorphic memory cell; if the programming speed characteristic of the cell is identified as being fast, performing a first programming tuning algorithm on the cell comprising: adding a first amount of charge to a floating gate of the cell during a programming operation ; verifying the charge level on the floating gate of the cell ; and repeating the adding and verifying steps until a desired charge level on the floating gate of the cell is achieved ; and adding a first amount of charge to a floating gate of the cell during a programming operation ; verifying the charge level on the floating gate of the cell ; and repeating the adding and verifying steps until a desired charge level on the floating gate of the cell is achieved ; and if the programming speed characteristic of the cell is identified as being slow, performing a second programming tuning algorithm on the cell comprising: adding a second amount of charge less than the first amount of charge to a floating gate of the cell during a programming operation ; verifying the charge level on the floating gate of the cell ; and repeating the adding and verifying steps until the desired charge level on the floating gate of the cell is achieved . adding a second amount of charge less than the first amount of charge to a floating gate of the cell during a programming operation ; verifying the charge level on the floating gate of the cell ; and repeating the adding and verifying steps until the desired charge level on the floating gate of the cell is achieved .
Regulating device for regulating a physical quantity of a fluid, comprising the following: - a regulating unit arranged to receive at least a first actual value and at least a first set value of the physical quantity of the fluid, compare the first actual value and the first set value , and, based on this comparison and on the basis of at least one regulating parameter , calculate and output a manipulated variable ; and - an optimization unit arranged to obtain a plurality of actual values of a plurality of physical quantities of the fluid, compare the obtained actual values with predefined set value ranges , compare the obtained actual values with set values , which have been modified by variations, wherein the variations comprise small imposed errors, wherein the modified set values are in the predefined set value range , and adjust the regulating parameters based on these comparisons and based of this plurality of actual values and pass them on to the regulating unit , wherein the optimization unit comprises an artificial neural network. - a regulating unit arranged to receive at least a first actual value and at least a first set value of the physical quantity of the fluid, compare the first actual value and the first set value , and, based on this comparison and on the basis of at least one regulating parameter , calculate and output a manipulated variable ; and receive at least a first actual value and at least a first set value of the physical quantity of the fluid, compare the first actual value and the first set value , and, based on this comparison and on the basis of at least one regulating parameter , calculate and output a manipulated variable ; and - an optimization unit arranged to obtain a plurality of actual values of a plurality of physical quantities of the fluid, compare the obtained actual values with predefined set value ranges , compare the obtained actual values with set values , which have been modified by variations, wherein the variations comprise small imposed errors, wherein the modified set values are in the predefined set value range , and adjust the regulating parameters based on these comparisons and based of this plurality of actual values and pass them on to the regulating unit , wherein the optimization unit comprises an artificial neural network. obtain a plurality of actual values of a plurality of physical quantities of the fluid, compare the obtained actual values with predefined set value ranges , compare the obtained actual values with set values , which have been modified by variations, wherein the variations comprise small imposed errors, wherein the modified set values are in the predefined set value range , and adjust the regulating parameters based on these comparisons and based of this plurality of actual values and pass them on to the regulating unit ,
An isolated binding protein that selectively binds human TGFβ1, wherein said binding protein is a homodimer of a polypeptide chain having the formula of, from N-terminus to C-terminus: VH domain-linker 1 -VL domain-linker2 -hinge -Fc region, wherein the VH domain comprises SEQ ID NO: 1 and the VL domain comprises SEQ ID NO: 6; the linker1 comprises SEQ ID NO: 3 or SEQ ID NO: 4; the linker2 comprises SEQ ID NO:20 or a variant thereof, wherein the variant differs from SEQ ID NO:20 by having up to two amino acid substitutions from glycine to serine or from serine to glycine; and the hinge comprises an amino acid sequence from a human IgG1 hinge region comprising the amino acid sequence of SEQ ID NO:21; and the Fc region is a human IgG1 or a human IgG4 Fc region. VH domain-linker 1 -VL domain-linker2 -hinge -Fc region, wherein the VH domain comprises SEQ ID NO: 1 and the VL domain comprises SEQ ID NO: 6; the linker1 comprises SEQ ID NO: 3 or SEQ ID NO: 4; the linker2 comprises SEQ ID NO:20 or a variant thereof, wherein the variant differs from SEQ ID NO:20 by having up to two amino acid substitutions from glycine to serine or from serine to glycine; and the hinge comprises an amino acid sequence from a human IgG1 hinge region comprising the amino acid sequence of SEQ ID NO:21; and the Fc region is a human IgG1 or a human IgG4 Fc region.
High-pressure rotor nozzle, comprising a main body having a channel for supplying a liquid under high pressure, a nozzle holder rotatably drivable by a hydraulically generated torque and having at least one nozzle which is in connection in a liquid-open manner with the channel and causes an axial recoil in operation, wherein a leakage chamber forming a hydraulic axial bearing in operation is provided between the main body and the nozzle holder that can be axially adjusted in relation to the same in a recoil-dependent manner, with said leakage chamber being connected to a first gap seal , guiding a leakage fluid, between the main body and the nozzle holder , characterized in that the leakage chamber changes into at least one throttle gap circumferentially surrounding the nozzle holder in an axial sub-region and varying in the axial extension thereof according to the movement path of the nozzle holder , wherein the throttle gap remains the same height over the axial length thereof.
A method for manufacturing a steel strip for coiled tubing, the method comprising: melting molten steel having a composition comprising, in terms of percent by mass, C: 0.10% or more and 0.16% or less, Si: 0.1% or more and 0.5% or less, Mn: 0.5% or more and 1.5% or less, P: 0.02% or less, S: 0.005% or less, Sol. Al: 0.01% or more and 0.07% or less, Cr: 0.4% or more and 0.8% or less, Cu: 0.25% or more and 0.5% or less, Ni: 0.15% or more and 0.3% or less, Mo: 0.1% or more and 0.2% or less, Nb: 0.01% or more and 0.04% or less, Ti: 0.005% or more and 0.03% or less, N: 0.005% or less, and optionally one or two selected from Sn: 0.001% or more and 0.005% or less and Ca: 0.001% or more and 0.003% or less, and the balance of Fe and inevitable impurities wherein the impurities optionally include Co: 0.1% or less, V: 0.01% or less and B: 0.0005% or less; casting the molten steel into a steel material; subjecting the steel material to hot rolling; and coiling a resultant steel strip, a finish rolling temperature being set to a temperature within the range of 820°C or more and 920°C or less and a coiling temperature being set to a temperature within the range of 550°C or more and 620°C or less, wherein the time taken from the finish hot rolling to the coiling is 20 seconds or less. melting molten steel having a composition comprising, in terms of percent by mass, C: 0.10% or more and 0.16% or less, Si: 0.1% or more and 0.5% or less, Mn: 0.5% or more and 1.5% or less, P: 0.02% or less, S: 0.005% or less, Sol. Al: 0.01% or more and 0.07% or less, Cr: 0.4% or more and 0.8% or less, Cu: 0.25% or more and 0.5% or less, Ni: 0.15% or more and 0.3% or less, Mo: 0.1% or more and 0.2% or less, Nb: 0.01% or more and 0.04% or less, Ti: 0.005% or more and 0.03% or less, N: 0.005% or less, and optionally one or two selected from Sn: 0.001% or more and 0.005% or less and Ca: 0.001% or more and 0.003% or less, and the balance of Fe and inevitable impurities wherein the impurities optionally include Co: 0.1% or less, V: 0.01% or less and B: 0.0005% or less; casting the molten steel into a steel material; subjecting the steel material to hot rolling; and coiling a resultant steel strip, a finish rolling temperature being set to a temperature within the range of 820°C or more and 920°C or less and a coiling temperature being set to a temperature within the range of 550°C or more and 620°C or less, wherein the time taken from the finish hot rolling to the coiling is 20 seconds or less.
A method for manufacturing a security element for securing value documents , comprising a) the supplying of a carrier having an emboss-lacquer layer which has a first relief structure forming a diffractive structure and a second relief structure forming a micromirror arrangement ; b) the printing of the first relief structure forming a diffractive structure with a printing ink which is based on platelet-shaped metal pigments which are constituted such that they align themselves spatially along the relief structure of the emboss-lacquer layer and hereby form a reflective layer ; c) the imprinting of a soluble washing ink in such a manner that the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement form recesses in the applied washing ink ; d) the applying over the full area of a colored thin-film element followed by the washing off of the washing ink together with the region of the colored thin-film element generated above the washing ink , so that the colored thin-film element in the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement remains behind in a form spatially aligned along the respective relief structure; e) the applying of an adhesive layer , which is suitable for the bonding of the security element with an object of value , onto the layer buildup obtained by the steps a) to d), where applicable over one or more intermediate layers. a) the supplying of a carrier having an emboss-lacquer layer which has a first relief structure forming a diffractive structure and a second relief structure forming a micromirror arrangement ; b) the printing of the first relief structure forming a diffractive structure with a printing ink which is based on platelet-shaped metal pigments which are constituted such that they align themselves spatially along the relief structure of the emboss-lacquer layer and hereby form a reflective layer ; c) the imprinting of a soluble washing ink in such a manner that the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement form recesses in the applied washing ink ; d) the applying over the full area of a colored thin-film element followed by the washing off of the washing ink together with the region of the colored thin-film element generated above the washing ink , so that the colored thin-film element in the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement remains behind in a form spatially aligned along the respective relief structure; e) the applying of an adhesive layer , which is suitable for the bonding of the security element with an object of value , onto the layer buildup obtained by the steps a) to d), where applicable over one or more intermediate layers.
A method of operating a Radio Network Controller, RNC, of a communication network during a soft handover process of a mobile terminal between a first base station, BS, and at least one second BS that are connected to the RNC , the method comprising: - receiving (S1), at a Medium Access Control, MAC, protocol layer of the RNC , a first data frame stream from the first BS via a first data path and a second data frame stream from the second BS via a second data path ; - determining (S2) a relative delay between the data frames of the first data frame stream and the second data frame stream regarding their arrival at the RNC ; and - merging (S3), at the MAC protocol layer, data frames of the first and the second data frame stream into a third data frame stream which is transmitted to a protocol layer above the MAC protocol layer, wherein the merging comprises a reordering process of the data frames and wherein, if the relative delay for a data frame exceeds a delay difference reference value, the data frame is transmitted from the MAC protocol layer to the protocol layer above the MAC protocol layer without subjecting the data frame to the reordering process. - receiving (S1), at a Medium Access Control, MAC, protocol layer of the RNC , a first data frame stream from the first BS via a first data path and a second data frame stream from the second BS via a second data path ; - determining (S2) a relative delay between the data frames of the first data frame stream and the second data frame stream regarding their arrival at the RNC ; and - merging (S3), at the MAC protocol layer, data frames of the first and the second data frame stream into a third data frame stream which is transmitted to a protocol layer above the MAC protocol layer, wherein the merging comprises a reordering process of the data frames and wherein, if the relative delay for a data frame exceeds a delay difference reference value, the data frame is transmitted from the MAC protocol layer to the protocol layer above the MAC protocol layer without subjecting the data frame to the reordering process.
A medical device for introducing gases into patients, comprising a gas supply device, a gas supply hose, a heating wire in the supply hose, at least one microprocessor, at least one memory and at least one software, a gas being supplied by the gas supply device by means of the gas supply hose to a patient, the gas being heated within the gas supply hose by means of the heating wire, the heating power of the heating wire being electrically controlled, characterized by that the resistance of the heating wire is an input variable of a mathematical estimation system of the type of a state observer, which mathematically describes a state space, which estimates the actual temperature at the exit of the hose and controls the heating power of the heating wire by means of this estimated value.
A method of configuring a headless Enrollee device for communications in a wireless network , the headless Enrollee device being configured to participate in a configuration protocol in order to attempt to enroll in the wireless network, the method comprising- performing a configuration protocol, the method being characterised in that the method comprises sending, by the headless Enrollee device , to a Configurator device , during an execution of the configuration protocol a message containing an indication of a status of a previous configuration attempt and the reason for failure to connect to the wireless network if the previous configuration attempt failed.
A beltpack having a control and quick release module which comprises: a first outer housing component and a second outer housing component , wherein the first outer housing component and the second outer housing component are coupled together; one or more buttons positioned on the first outer housing , wherein the one or more buttons are overlaid over a top printed circuit board ; a first end which is connected to the first outer housing ; a second end which is connected to the second housing ; electrical leads positioned in between the first outer housing and the second outer housing , wherein the electrical leads connect the first end, the local processing and data module , and the second end; and a female contact pin array connected to the top printed circuit board , and a male contact pin array connected to a lower printed circuit board ; the male contact pin array mating with the female contact pin array via a magnetic interface which is generally rectangular and surrounds the pin arrays ; the beltpack further comprising a local processing and data module positioned in between the first outer housing and the second outer housing . a first outer housing component and a second outer housing component , wherein the first outer housing component and the second outer housing component are coupled together; one or more buttons positioned on the first outer housing , wherein the one or more buttons are overlaid over a top printed circuit board ; a first end which is connected to the first outer housing ; a second end which is connected to the second housing ; electrical leads positioned in between the first outer housing and the second outer housing , wherein the electrical leads connect the first end, the local processing and data module , and the second end; and a female contact pin array connected to the top printed circuit board , and a male contact pin array connected to a lower printed circuit board ; the male contact pin array mating with the female contact pin array via a magnetic interface which is generally rectangular and surrounds the pin arrays ; the beltpack further comprising a local processing and data module positioned in between the first outer housing and the second outer housing .