mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making an injectable dermal filler composition comprising hyaluronic acid (HA) crosslinked with lysine for treating wrinkles in skin, the method comprising the steps of crosslinking HA with a di-amine crosslinker in the presence of a carbodiimide coupling agent wherein the di-amine crosslinker is lysine or lysine methyl ester and wherein the crosslinked hyaluronic acid is present in the hydrogel at a concentration of 10 to 40 mg/ml.
Transfer apparatus for transferring press-in elements (S) in or on a press-bound sheet-metal processing tool , having a lower coupling device held on a lower tool part and having an upper coupling device held on an upper tool part , wherein these coupling devices engage in one another during the press-cycle-bound closing of the sheet-metal processing tool and in the process allow the transfer of at least one bolt-like press-in element (S), wherein the coupling devices, while engaging with one another, form a continuous and barrier-free transfer channel (D) with a vertical orientation, through which at least one press-in element to be transferred (S) can be fired, characterized in that , in order to transfer bolt-like press-in elements, the lower coupling device has a tube element and the upper coupling device has a sleeve element , which are configured and arranged such that the tube element can pass into the sleeve element without contact during the closing of the sheet-metal processing tool , wherein the inner recess of the sleeve element is configured in the lower region such that the tube element can pass in, and in the upper region has a transition region , formed by a narrowing, chamfer or rounded portion, that has a centring action on the bolt-like press-in element (S) to be transferred.
A self-position estimation apparatus for estimating a self-position of a mobile object , the self-position estimation apparatus comprising: N types of sensors (where N is a natural number equal to two) that detect information with different contents from each other regarding a moving status of the mobile object ; an environment determiner that determines an environment around the mobile object ; a selector that selects information detected by one or more but less than the N types of sensors based on a determination result of the environment determiner ; and an estimator that estimates the self-position of the mobile object based on the information selected by the selector , characterized in that the N types of sensors include a first scanner that scans a moving path of the mobile object and a second scanner that scans above the moving path of the mobile object , the environment determiner determines whether a hole with a size into which the mobile object does not fall is present in a scan range (A1, A2, A3, A4, A5) of the first scanner , and the selector selects information detected by the second scanner when the hole is present in the moving path, and selects information detected by at least one of the first scanner and/or the second scanner when the hole is not present in the moving path. N types of sensors (where N is a natural number equal to two) that detect information with different contents from each other regarding a moving status of the mobile object ; an environment determiner that determines an environment around the mobile object ; a selector that selects information detected by one or more but less than the N types of sensors based on a determination result of the environment determiner ; and an estimator that estimates the self-position of the mobile object based on the information selected by the selector , characterized in that the N types of sensors include a first scanner that scans a moving path of the mobile object and a second scanner that scans above the moving path of the mobile object , the environment determiner determines whether a hole with a size into which the mobile object does not fall is present in a scan range (A1, A2, A3, A4, A5) of the first scanner , and the selector selects information detected by the second scanner when the hole is present in the moving path, and selects information detected by at least one of the first scanner and/or the second scanner when the hole is not present in the moving path.
A process comprising: (a) resistance or induction heating a billet to a forging temperature in a heating source, the billet made from a stainless steel: having an austenitic or austenitic-ferritic duplex phase structure, being substantially free of intermetallic phases, and having a CP value of 500 or more wherein the CP value of the alloy is given by the following formula: CP = 20 x % Cr + 0.3 x % Ni + 30 x % Si + 40 x % Mo + 5 x % W + 10 x % Mn + 50 x % C − 200 x % N , (b) removing the billet from the heating source and forging the billet while maintaining a temperature of the entire billet above an upper boundary of a critical temperature range of the steel such that the entire billet remains substantially free of intermetallic phases, (c) liquid cooling the billet to below the critical temperature range of the steel alloy within three minutes of removing the billet from the heating source such that the entire billet remains substantially free of intermetallic phases. (a) resistance or induction heating a billet to a forging temperature in a heating source, the billet made from a stainless steel: having an austenitic or austenitic-ferritic duplex phase structure, being substantially free of intermetallic phases, and having a CP value of 500 or more wherein the CP value of the alloy is given by the following formula: CP = 20 x % Cr + 0.3 x % Ni + 30 x % Si + 40 x % Mo + 5 x % W + 10 x % Mn + 50 x % C − 200 x % N , having an austenitic or austenitic-ferritic duplex phase structure, being substantially free of intermetallic phases, and having a CP value of 500 or more wherein the CP value of the alloy is given by the following formula: CP = 20 x % Cr + 0.3 x % Ni + 30 x % Si + 40 x % Mo + 5 x % W + 10 x % Mn + 50 x % C − 200 x % N , (b) removing the billet from the heating source and forging the billet while maintaining a temperature of the entire billet above an upper boundary of a critical temperature range of the steel such that the entire billet remains substantially free of intermetallic phases, (c) liquid cooling the billet to below the critical temperature range of the steel alloy within three minutes of removing the billet from the heating source such that the entire billet remains substantially free of intermetallic phases.
A User Equipment, UE, comprising: a WLAN interface unit configured to: receive, from a Trusted WLAN Access Gateway, TWAG, , a request message for switching an IP flow from 3GPP access to WLAN access, wherein the request message includes a routing rule used by the UE ; and transmit, to the TWAG , a reject message for rejecting the flow switching in a case that the UE rejects the routing rule, wherein the reject message includes a cause value, the cause value indicates that a resource for an access network to be requested is insufficient, or that a function of the access network to be requested is unavailable, the routing rule includes information relating to a routing access, a rule priority, and a routing filter, and the routing filter includes at least one of a source IP address, a destination IP address, information relating to a protocol, a source port number, and a destination port number. receive, from a Trusted WLAN Access Gateway, TWAG, , a request message for switching an IP flow from 3GPP access to WLAN access, wherein the request message includes a routing rule used by the UE ; and transmit, to the TWAG , a reject message for rejecting the flow switching in a case that the UE rejects the routing rule, wherein the reject message includes a cause value, the cause value indicates that a resource for an access network to be requested is insufficient, or that a function of the access network to be requested is unavailable, the reject message includes a cause value, the cause value indicates that a resource for an access network to be requested is insufficient, or that a function of the access network to be requested is unavailable, the routing rule includes information relating to a routing access, a rule priority, and a routing filter, and the routing filter includes at least one of a source IP address, a destination IP address, information relating to a protocol, a source port number, and a destination port number.
A method comprising: by a controller located between a server device and a first client device , the controller configured to equalize signal path latency in a colocation data center , adjusting a signal path latency between the server device and the first client device by a difference between a first signal path latency (ILb) of a first cable interconnect between the server device and the first client device and a second signal path latency (ILa) of a second cable interconnect between the server device and a second client device . by a controller located between a server device and a first client device , the controller configured to equalize signal path latency in a colocation data center , adjusting a signal path latency between the server device and the first client device by a difference between a first signal path latency (ILb) of a first cable interconnect between the server device and the first client device and a second signal path latency (ILa) of a second cable interconnect between the server device and a second client device .
Hybrid drive device with an internal combustion engine (11a; 11b), with an electric machine (12a; 12b) having a rotor (17a; 17b), with a planetary gearbox (13a; 13b), with a first spur gear sub-unit (14a; 14b) and with a second spur gear sub-unit (15a; 15b), wherein the first spur gear sub-unit (14a; 14b) has a first input shaft (EW1a; EW1b) and the second spur gear sub-unit (15a; 15b) has a second input shaft (EW2a; EW2b), wherein the electric machine (12a; 12b) is directly connected to the planetary gearbox (13a; 13b), wherein the first spur gear sub-unit (14a; 14b) and the second spur gear sub-unit (15a; 15b) are directly connected to the planetary gearbox (13a; 13b), wherein the planetary gearbox (13a; 13b) has two planetary gear sets (P1a, P2a; P1b, P2b), wherein a first planetary gear set (P1a; P1b) of the planetary gearbox (13a; 13b) has a ring gear (P11a; P11b), a first planetary carrier (P12a; P12b) and a first sun gear (P13a; P13b), wherein the second planetary gear set (P2a, P2b) has a second ring gear (P11a; P11b) and the ring gear (P11a; P11b) and the second ring gear (P11a; P11b) are non-rotatably coupled to each other and coupled for torque transmission to the rotor (17a; 17b) of the electric machine (12a; 12b), wherein the second input shaft (EW2a; EW2b) is permanently non-rotatably coupled to the first planetary carrier (P12a; P12b) of the first planetary gear set (P1a; P1b) of the planetary gearbox (13a; 13b) characterised in that the internal combustion engine (11a; 11b) is connected to the planetary gearbox (13a; 13b) via a decoupler (16a; 16b), and in that the first planetary carrier (P12a; P12b) of the first planetary gear set (P1a; P1b) is non-rotatably coupled to a second planetary carrier (P22a; P22b) of the second planetary gear set (P2a; P2b). wherein the electric machine (12a; 12b) is directly connected to the planetary gearbox (13a; 13b), wherein the first spur gear sub-unit (14a; 14b) and the second spur gear sub-unit (15a; 15b) are directly connected to the planetary gearbox (13a; 13b), wherein the planetary gearbox (13a; 13b) has two planetary gear sets (P1a, P2a; P1b, P2b), wherein a first planetary gear set (P1a; P1b) of the planetary gearbox (13a; 13b) has a ring gear (P11a; P11b), a first planetary carrier (P12a; P12b) and a first sun gear (P13a; P13b), wherein the second planetary gear set (P2a, P2b) has a second ring gear (P11a; P11b) and the ring gear (P11a; P11b) and the second ring gear (P11a; P11b) are non-rotatably coupled to each other and coupled for torque transmission to the rotor (17a; 17b) of the electric machine (12a; 12b), wherein the second input shaft (EW2a; EW2b) is permanently non-rotatably coupled to the first planetary carrier (P12a; P12b) of the first planetary gear set (P1a; P1b) of the planetary gearbox (13a; 13b) characterised in that the internal combustion engine (11a; 11b) is connected to the planetary gearbox (13a; 13b) via a decoupler (16a; 16b), and in that the first planetary carrier (P12a; P12b) of the first planetary gear set (P1a; P1b) is non-rotatably coupled to a second planetary carrier (P22a; P22b) of the second planetary gear set (P2a; P2b).
A method of wireless communication, comprising: identifying a first bundling level indicating a number of redundant versions of information to be transmitted to a receiver in a control channel transmission; identifying a second bundling level indicating a number of redundant versions of information to be transmitted to the receiver in a shared channel transmission; and characterised by setting an indicator in a control information field in the control channel transmission to indicate the second bundling level based on the first bundling level and the indicator. identifying a first bundling level indicating a number of redundant versions of information to be transmitted to a receiver in a control channel transmission; identifying a second bundling level indicating a number of redundant versions of information to be transmitted to the receiver in a shared channel transmission; and characterised by setting an indicator in a control information field in the control channel transmission to indicate the second bundling level based on the first bundling level and the indicator.
A medical fluid pumping system comprising: a medical fluid pump chamber ; a fluid exchange conduit fluidly coupled to the medical fluid pump chamber; at least one pump configured to pump medical fluid to and drain medical fluid from a cavity of a patient via a patient line coupled to the fluid exchange conduit wherein the patient line includes a catheter and wherein the at least one pump is configured to pump dialysate to and drain dialysate from a peritoneal cavity of the patient via the patient line; and a pump controller communicably coupled to the at least one pump, the pump controller configured to cause the pump to transmit fluid pulses through the patient line, wherein the pump controller is configured to cause the pulses to occur at a resonant frequency of the catheter. a medical fluid pump chamber ; a fluid exchange conduit fluidly coupled to the medical fluid pump chamber; at least one pump configured to pump medical fluid to and drain medical fluid from a cavity of a patient via a patient line coupled to the fluid exchange conduit wherein the patient line includes a catheter and wherein the at least one pump is configured to pump dialysate to and drain dialysate from a peritoneal cavity of the patient via the patient line; and a pump controller communicably coupled to the at least one pump, the pump controller configured to cause the pump to transmit fluid pulses through the patient line, wherein the pump controller is configured to cause the pulses to occur at a resonant frequency of the catheter.
Pharmaceutical composition comprising a drug with a laccase-reactive functional group and a laccase (EC 1.10.3.2).
A control device intended to control a function of a motor vehicle, the control device comprising: - a touch panel comprising an outer surface provided with one or several control areas each assigned to a specific function of the motor vehicle, the touch panel supporting one or several elementary sensors each positioned in vertical alignment with one of said control areas , said elementary sensor(s) being likely to generate at least one signal in response to an action applied by the user on at least one of said control areas , - at least one actuator configured to provide a user with haptic feedback by a translational displacement of the touch panel in a plane (P), called the vibration plane, and in a single displacement direction (Dx), - a monitoring unit configured to receive said at least one signal generated by said elementary sensor(s) and to monitor said at least one actuator in response to said signal, said control device including support and guide means intended to maintain the touch panel aligned in the vibration plane (P) and being characterized in that each of the elementary sensors comprises at least one insulating substrate on which are deposited conductive tracks forming at least one capacitive sensor and an assembly of conductive or semiconductive nanoparticles in a colloidal suspension in an electrically insulating ligand, said assembly forming at least one force sensor. - a touch panel comprising an outer surface provided with one or several control areas each assigned to a specific function of the motor vehicle, the touch panel supporting one or several elementary sensors each positioned in vertical alignment with one of said control areas , said elementary sensor(s) being likely to generate at least one signal in response to an action applied by the user on at least one of said control areas , - at least one actuator configured to provide a user with haptic feedback by a translational displacement of the touch panel in a plane (P), called the vibration plane, and in a single displacement direction (Dx), - a monitoring unit configured to receive said at least one signal generated by said elementary sensor(s) and to monitor said at least one actuator in response to said signal,
A method for producing optically active secondary alcohols, wherein a substrate carbonyl compound selected from the group consisting of aromatic ketones and heteroaromatic ketones, and these ketones in which the aromatic ring or heterocycle has a substituent, wherein 3-quinuclidinone, 3-quinuclidinone derivative having a substituent, and a ketone having an aromatic hydrocarbon group and a heterocycle are excluded is reacted with hydrogen and/or a hydrogen donating compound in the presence of one or more ruthenium complexes selected by the compounds expressed by following general formula : RuXYAB in the general formula , X and Y are the same or different from each other and denote a hydrogen atom or an anionic group, A denotes an optically active diphosphine expressed by following general formula : in the general formula , R 1 and R 2 are the same or different from each other and denote a C1-20 chained or cyclic hydrocarbon group which may have a substituent, R 3 and R 4 are the same or different from each other and denote a hydrogen atom or a C1-3 hydrocarbon group, R 5 , R 6 , R 7 and R 8 are the same or different from each other and denote a hydrocarbon group which may have a substituent, and * expresses an asymmetric carbon atom, B is 2-(aminomethyl)-3,4-dimethylpyridine, 2-(aminomethyl)-3,5-dimethylpyridine, 2-(aminomethyl)-3,6-dimethylpyridine, 2-(aminomethyl)-4,5-dimethylpyridine, 2-(aminomethyl)-4,6-dimethylpyridine, 2-(aminomethyl)-5,6-dimethylpyridine, 2-(aminomethyl)pyrazine, 2-(1-aminoethyl)pyrazine, 2-(aminomethyl)pyrimidine, or 2-(1-aminoethyl)pyrimidine. X and Y are the same or different from each other and denote a hydrogen atom or an anionic group, A denotes an optically active diphosphine expressed by following general formula : R 1 and R 2 are the same or different from each other and denote a C1-20 chained or cyclic hydrocarbon group which may have a substituent, R 3 and R 4 are the same or different from each other and denote a hydrogen atom or a C1-3 hydrocarbon group, R 5 , R 6 , R 7 and R 8 are the same or different from each other and denote a hydrocarbon group which may have a substituent, and * expresses an asymmetric carbon atom, B is 2-(aminomethyl)-3,4-dimethylpyridine, 2-(aminomethyl)-3,5-dimethylpyridine, 2-(aminomethyl)-3,6-dimethylpyridine, 2-(aminomethyl)-4,5-dimethylpyridine, 2-(aminomethyl)-4,6-dimethylpyridine, 2-(aminomethyl)-5,6-dimethylpyridine, 2-(aminomethyl)pyrazine, 2-(1-aminoethyl)pyrazine, 2-(aminomethyl)pyrimidine, or 2-(1-aminoethyl)pyrimidine.
Expandable methyl methacrylate resin particles comprising: a base resin including, as constitutional units, a methyl methacrylate unit and an acrylic ester unit; and a blowing agent, a content of the methyl methacrylate unit being not less than 91 parts by weight and not more than 99 parts by weight and a content of the acrylic ester unit being not less than 1 part by weight and not more than 9 parts by weight, relative to 100 parts by weight of a total content of the methyl methacrylate unit and the acrylic ester unit in the base resin, the expandable methyl methacrylate resin particles having (a) an average particle diameter of 0.6 mm to 1.0 mm and (b) a particle diameter variation coefficient of not more than 20%, wherein the average particle diameter and the particle diameter variation coefficient are determined according to the methods mentioned in the specification. a base resin including, as constitutional units, a methyl methacrylate unit and an acrylic ester unit; and a blowing agent, a content of the methyl methacrylate unit being not less than 91 parts by weight and not more than 99 parts by weight and a content of the acrylic ester unit being not less than 1 part by weight and not more than 9 parts by weight, relative to 100 parts by weight of a total content of the methyl methacrylate unit and the acrylic ester unit in the base resin, the expandable methyl methacrylate resin particles having (a) an average particle diameter of 0.6 mm to 1.0 mm and (b) a particle diameter variation coefficient of not more than 20%, wherein the average particle diameter and the particle diameter variation coefficient are determined according to the methods mentioned in the specification.