mhurhangee/patent-ind-claim-en huggingface dataset:
A telecommunication system, comprising: a first core network device communicatively connectable with a session-originating device (112; 104; 202), wherein the first core network device is configured to: receive an initiation request of a communication session of the session-originating device (112; 104; 202), the initiation request including information of a destination user equipment, UE (116; 130;102), and information of one or more media capabilities; determine network-location information of the destination UE, wherein the network-location information comprises a Diameter result code; retrieve modification information corresponding to the network-location information; modify the information of the one or more media capabilities in the initiation request based at least in part on the modification information; and transmit the initiation request including the modified information of the one or more media capabilities to a second core network device , wherein the second core network device corresponds to the network-location information. receive an initiation request of a communication session of the session-originating device (112; 104; 202), the initiation request including information of a destination user equipment, UE (116; 130;102), and information of one or more media capabilities; determine network-location information of the destination UE, wherein the network-location information comprises a Diameter result code; retrieve modification information corresponding to the network-location information; modify the information of the one or more media capabilities in the initiation request based at least in part on the modification information; and transmit the initiation request including the modified information of the one or more media capabilities to a second core network device , wherein the second core network device corresponds to the network-location information.
Method of treating a sheet in a printing machine wherein, in a first step , a front side of the sheet is printed on by means of an inkjet printing head , - wherein in a second step , the newly printed front side is irradiated and thus dried by means of at least one first heat source , causing a first plastic torsional deformation of the sheet , - wherein the second step occurs after the first step , characterized - in that in a third step , the sheet is conditioned in that a back side of the sheet is contacted or irradiated by means of a second heat source , causing a second plastic torsional deformation of the sheet , the second torsional deformation directed against the first torsional deformation , - in that the third step occurs before the second step , and - in that a power of the second heat source is set in such a way that the second torsional deformation is dimensioned such that the first torsional deformation and the second torsional deformation neutralize one another. - wherein in a second step , the newly printed front side is irradiated and thus dried by means of at least one first heat source , causing a first plastic torsional deformation of the sheet , - wherein the second step occurs after the first step , - in that in a third step , the sheet is conditioned in that a back side of the sheet is contacted or irradiated by means of a second heat source , causing a second plastic torsional deformation of the sheet , the second torsional deformation directed against the first torsional deformation , - in that the third step occurs before the second step , and - in that a power of the second heat source is set in such a way that the second torsional deformation is dimensioned such that the first torsional deformation and the second torsional deformation neutralize one another.
A needleless connector comprising: a housing defining an internal cavity, the housing comprising, a body section comprising a first port and one or more internal contact tabs , and a base section comprising a valve mount and a second port , wherein the valve mount comprises a rim having a radially protruding outer circumferential sidewall and defining a recess , the recess having a bottom surface that is distally separated from a top surface of the rim , the base section having one or more support members that extend from the rim laterally into the recess ; and a compressible valve configured to be coupled to the valve mount and configured to be disposed within at least a portion of the internal cavity and configured to be movably retained within the housing, the compressible valve comprising, a flange portion for securing the compressible valve within the housing, wherein a central longitudinal axis of the housing is defined by a coaxial arrangement of the first port and the second port , and wherein the one or more internal contact tabs are arranged to contact an outer surface of the flange portion and secure the flange portion within the housing, the one or more internal contact tabs configured to provide a radial force substantially orthogonal to the central longitudinal axis . a housing defining an internal cavity, the housing comprising, a body section comprising a first port and one or more internal contact tabs , and a base section comprising a valve mount and a second port , wherein the valve mount comprises a rim having a radially protruding outer circumferential sidewall and defining a recess , the recess having a bottom surface that is distally separated from a top surface of the rim , the base section having one or more support members that extend from the rim laterally into the recess ; and a body section comprising a first port and one or more internal contact tabs , and a base section comprising a valve mount and a second port , wherein the valve mount comprises a rim having a radially protruding outer circumferential sidewall and defining a recess , the recess having a bottom surface that is distally separated from a top surface of the rim , the base section having one or more support members that extend from the rim laterally into the recess ; and a compressible valve configured to be coupled to the valve mount and configured to be disposed within at least a portion of the internal cavity and configured to be movably retained within the housing, the compressible valve comprising, a flange portion for securing the compressible valve within the housing, wherein a central longitudinal axis of the housing is defined by a coaxial arrangement of the first port and the second port , and wherein the one or more internal contact tabs are arranged to contact an outer surface of the flange portion and secure the flange portion within the housing, the one or more internal contact tabs configured to provide a radial force substantially orthogonal to the central longitudinal axis .
Process for obtaining an aqueous extract of tea leaves (Camellia sinensis) selected from fresh tea, pu'er tea, matcha tea or green tea, comprising the following steps : a) tea leaves or tea powder are brought into contact with water, then optionally ground; b) phytic acid is added; c) adjust the pH to between 10 and 11 ; d) the mixture is stirred for at least one hour at a temperature of between 40 and 80°C; e) the mixture obtained in c) is purified to remove residual solid plant matter and the filtrate is collected; f) adjust the pH to a value between 6 and 8; g) treat with powdered activated carbon; h) filter to remove activated carbon and collect filtrate; i) treat filtrate with polyvinylpolypyrrolidones (PVPP); j) filter to remove polyvinylpolypyrrolidones and collect filtrate; k) the pH of the filtrate is checked and readjusted, if necessary, to a value between 6 and 6.5. a) tea leaves or tea powder are brought into contact with water, then optionally ground; b) phytic acid is added; c) adjust the pH to between 10 and 11 ; d) the mixture is stirred for at least one hour at a temperature of between 40 and 80°C; e) the mixture obtained in c) is purified to remove residual solid plant matter and the filtrate is collected; f) adjust the pH to a value between 6 and 8; g) treat with powdered activated carbon; h) filter to remove activated carbon and collect filtrate; i) treat filtrate with polyvinylpolypyrrolidones (PVPP); j) filter to remove polyvinylpolypyrrolidones and collect filtrate; k) the pH of the filtrate is checked and readjusted, if necessary, to a value between 6 and 6.5.
Device for determining a respiration rate of a subject, said device comprising: - an input interface for obtaining a red and/or an infrared photoplethysmography, PPG, signal , - a feature signal unit configured to extract a first sequence of features from the PPG signal and to generate a first feature signal from said sequence of features, a resampling unit configured to resample with a resampling function the first feature signal to yield a resampled signal with a constant sampling rate and/or to resample a first derivative to yield a resampled first derivative with a constant sampling rate, a transformation unit configured to calculate a Fourier transform of the resampled signal to yield a transformed resampled signal or to calculate a Fourier transform of the resampled first derivative to yield a transformed resampled first derivative 29a, and - an extraction unit configured to extract from the transformed resampled signal a first respiration rate or from the transformed resampled first derivative the first respiration rate , wherein the first sequence of features is a sequence of phases of the first harmonic of a heart beat of the subject with respect to a start of the heart beat and whererin the first feature signal corresponds to the sequenc of phases. - an input interface for obtaining a red and/or an infrared photoplethysmography, PPG, signal , - a feature signal unit configured to extract a first sequence of features from the PPG signal and to generate a first feature signal from said sequence of features, a resampling unit configured to resample with a resampling function the first feature signal to yield a resampled signal with a constant sampling rate and/or to resample a first derivative to yield a resampled first derivative with a constant sampling rate, a transformation unit configured to calculate a Fourier transform of the resampled signal to yield a transformed resampled signal or to calculate a Fourier transform of the resampled first derivative to yield a transformed resampled first derivative 29a, and a resampling unit configured to resample with a resampling function the first feature signal to yield a resampled signal with a constant sampling rate and/or to resample a first derivative to yield a resampled first derivative with a constant sampling rate, a transformation unit configured to calculate a Fourier transform of the resampled signal to yield a transformed resampled signal or to calculate a Fourier transform of the resampled first derivative to yield a transformed resampled first derivative 29a, and - an extraction unit configured to extract from the transformed resampled signal a first respiration rate or from the transformed resampled first derivative the first respiration rate , wherein the first sequence of features is a sequence of phases of the first harmonic of a heart beat of the subject with respect to a start of the heart beat and whererin the first feature signal corresponds to the sequenc of phases.
A compound of Formula I : or a pharmaceutically acceptable salt thereof wherein, R 1 is selected from the group consisting of of: R 11 is H, halogen, (1-2C)alkyl or (1-2C)alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 12 is halogen, (1-2C)alkyl, (2-3C)alkynyl, (1-2C)alkylthio, (3-8C)cycloalkyl, cyano or nitro, all alkyl and cycloalkyl groups optionally being substituted with one or more halogen; R 13 is H, halogen, (1-2C)alkyl, (1-2C)alkoxy, deuterium or C 2 H 3 (trideuteriomethyl) all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 14 is H, halogen, (1-2C)alkyl or (1-2C)alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 2 is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted, R 3 is selected from the group consisting of: a) (6-10C)aryl, b) (1-9C)heteroaryl, c) (3-8C)cycloalkyl, d) (2-7C)heterocycloalkyl, e) (1-6C)alkyl, wherein all groups optionally can be substituted, R 4 is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted, R 5 is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted, A is selected from CH(R a ) or C(O), R a is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted with fluorine or hydroxyl. R 1 is selected from the group consisting of of: R 11 is H, halogen, (1-2C)alkyl or (1-2C)alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 12 is halogen, (1-2C)alkyl, (2-3C)alkynyl, (1-2C)alkylthio, (3-8C)cycloalkyl, cyano or nitro, all alkyl and cycloalkyl groups optionally being substituted with one or more halogen; R 13 is H, halogen, (1-2C)alkyl, (1-2C)alkoxy, deuterium or C 2 H 3 (trideuteriomethyl) all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 14 is H, halogen, (1-2C)alkyl or (1-2C)alkoxy, all alkyl and alkoxy groups optionally being substituted with one or more halogen; R 2 is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted, a) hydrogen, b) (1-6C)alkyl, R 3 is selected from the group consisting of: a) (6-10C)aryl, b) (1-9C)heteroaryl, c) (3-8C)cycloalkyl, d) (2-7C)heterocycloalkyl, e) (1-6C)alkyl, wherein all groups optionally can be substituted, a) (6-10C)aryl, b) (1-9C)heteroaryl, c) (3-8C)cycloalkyl, d) (2-7C)heterocycloalkyl, e) (1-6C)alkyl, R 4 is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted, a) hydrogen, b) (1-6C)alkyl, R 5 is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted, a) hydrogen, b) (1-6C)alkyl, A is selected from CH(R a ) or C(O), R a is selected from the group consisting of: a) hydrogen, b) (1-6C)alkyl, wherein (1-6C)alkyl optionally can be substituted with fluorine or hydroxyl. a) hydrogen, b) (1-6C)alkyl,
A system for addressing electrodes (30-33) in an electrode array for synthesizing a molecule, the system comprising an array of electrode cells, each electrode cell comprising: i. an access transistor having - a gate, - a source, and - a drain; and ii. a storage circuit ; characterized in that - the electrodes are nanoelectrodes, - the electrode array is a nanoelectrode array, - the gate is resistively coupled to a word line , - the source is resistively coupled to a bit line , and - the storage circuit is resistively coupled to the drain and comprises a nanoelectrode (30-33). i. an access transistor having - a gate, - a source, and - a drain; and - a gate, - a source, and - a drain; and ii. a storage circuit ; - the electrodes are nanoelectrodes, - the electrode array is a nanoelectrode array, - the gate is resistively coupled to a word line , - the source is resistively coupled to a bit line , and - the storage circuit is resistively coupled to the drain and comprises a nanoelectrode (30-33).
A sealed compressor comprising: a compression mechanism part compressing a refrigerant in a sealed container; and a refrigerator oil, wherein the compression mechanism part comprises a first member and a second member sliding with each other, characterised in that the first member is a substrate which is made of iron-based metal and has a diamond-like carbon film on a surface of the substrate and the second member is formed of cast iron with magnesium added, has an amount of carbide precipitation on a sliding surface with the first member of less than or equal to 5% in area ratio, and has a Rockwell hardness (HRC) of greater than or equal to 40 but less than or equal to 55. a compression mechanism part compressing a refrigerant in a sealed container; and a refrigerator oil, wherein the compression mechanism part comprises a first member and a second member sliding with each other, characterised in that the first member is a substrate which is made of iron-based metal and has a diamond-like carbon film on a surface of the substrate and the second member is formed of cast iron with magnesium added, has an amount of carbide precipitation on a sliding surface with the first member of less than or equal to 5% in area ratio, and has a Rockwell hardness (HRC) of greater than or equal to 40 but less than or equal to 55.
A device , comprising: a plurality of receive paths each having a respective transconductance amplifier ; an amplifier having a same input coupled to an output of a respective phase shifter of each receive path and a mixer coupled to an output of the amplifier , the device configured to combine each signal from each receive path in at least one of a voltage domain and a current domain, each receive path having its transconductance amplifier coupled between the phase shifter and a low noise amplifier , LNA. a plurality of receive paths each having a respective transconductance amplifier ; an amplifier having a same input coupled to an output of a respective phase shifter of each receive path and a mixer coupled to an output of the amplifier , the device configured to combine each signal from each receive path in at least one of a voltage domain and a current domain, each receive path having its transconductance amplifier coupled between the phase shifter and a low noise amplifier , LNA.
Method for actuating an electric motor , wherein semiconductor switches (T1, T2, T3, T4, T5, T6) are connected in a feed line of the electric motor in such a way that a desired current vector is produced in the electric motor that is energized by means of the feed line , wherein, at least when a maximum thermal loading of the semiconductor switches (T1, T2, T3, T4, T5, T6) and/or of semiconductor elements (D1, D2, D3, D4, D5, D6) associated with the semiconductor switches (T1, T2, T3, T4, T5, T6) exceeds a loading limit value , a voltage potential is shifted in such a way by connecting the semiconductor switches (T1, T2, T3, T4, T5, T6) that the maximum thermal loading is reduced, and wherein the maximum thermal loading (TJ_up, TJ_low) is compared with a loading limit value and respective negative differences between the maximum thermal loading and the loading limit value that indicate an undershooting of the loading limit value and therefore an uncritical maximum thermal loading are cut off in a saturation element and therefore able to be blocked out in a further processing operation and the maximum thermal loading (TJ_up, TJ_low) is used for reducing the thermal loading only when it exceeds the or a loading limit value .
A method for defining a clutch slipping point position (X sp ) of a clutch in a gearbox , wherein the gearbox comprises an input shaft and wherein the input shaft is arranged to be braked by a braking means , the method comprising: - determining (S1) if the clutch is dragging when the clutch is fully disengaged; - when it is determined that the clutch is dragging, applying (S2) the braking means with a predetermined brake torque (T b ) and so that the input shaft is not rotating; and thereafter: - moving (S3) the clutch from the fully disengaged position towards an engaged position; - determining (S4) when the input shaft starts to rotate with a predetermined rotation value indicative of a rotational speed of the input shaft; - registering (S5) a clutch position (X b ) in which the clutch is positioned when the predetermined rotation value is reached; - using (S6) a clutch transfer characteristics of the clutch, the predetermined brake torque (T b ) and the registered clutch position (X b ) to define the clutch slipping point position (X sp ). - determining (S1) if the clutch is dragging when the clutch is fully disengaged; - when it is determined that the clutch is dragging, applying (S2) the braking means with a predetermined brake torque (T b ) and so that the input shaft is not rotating; and thereafter: - moving (S3) the clutch from the fully disengaged position towards an engaged position; - determining (S4) when the input shaft starts to rotate with a predetermined rotation value indicative of a rotational speed of the input shaft; - registering (S5) a clutch position (X b ) in which the clutch is positioned when the predetermined rotation value is reached; - using (S6) a clutch transfer characteristics of the clutch, the predetermined brake torque (T b ) and the registered clutch position (X b ) to define the clutch slipping point position (X sp ).
Battery cell module comprising a plurality of battery cells which are electrically conductively connected to one another, wherein the battery cell module further comprises a cooling plate for the battery cells , wherein the cooling plate is in the form of a mounting plate and has mounting elements for directly mounting the cooling plate into a motor vehicle, wherein the battery cell module further comprises two housings which are different from one another, characterized in that the cooling plate , together with each of the two housings which are different from one another, in particular a half-shell housing, in each case forms a closed-off space for accommodating battery cells , and in that the cooling plate , together with the two housings which are different from one another, forms two closed-off spaces , which are separated from one another, for accommodating battery cells , in each of which spaces battery cells are arranged.
A method of checking the authenticity of the content of a non-volatile memory of an electronic device comprising a microcontroller and an embedded secure element , comprising the steps of: starting the microcontroller with instructions stored in a first non-reprogrammable memory area associated with the microcontroller; starting the secure element ; executing, with the secure element, a signature verification on the content of a second reprogrammable non-volatile memory area associated with the microcontroller; and interrupting, with a switch (K) for interrupting the power supply on request of the secure element, the power supply of the microcontroller if the signature is not verified. starting the microcontroller with instructions stored in a first non-reprogrammable memory area associated with the microcontroller; starting the secure element ; executing, with the secure element, a signature verification on the content of a second reprogrammable non-volatile memory area associated with the microcontroller; and interrupting, with a switch (K) for interrupting the power supply on request of the secure element, the power supply of the microcontroller if the signature is not verified.