mhurhangee/patent-ind-claim-en huggingface dataset:
A bearing assembly for movably coupling a first, inner member with a second, outer member , a movable one of the first and second members (1. 2) being angularly displaceable with respect to the other one of the two members about a first axis (A1) extending centrally through the inner member and about at least one second axis (A 2 n ) generally intersecting the first axis (A1) or skewed with respect to the first axis (A1), the bearing assembly comprising: an inner plain bearing section including an inner ring connectable with the first member and having an outer convex bearing surface , and an outer ring disposed about the inner ring and having an inner concave bearing surface disposed against the inner ring bearing surface , the inner ring bearing surface and outer ring bearing surface each being configured such that one of the inner and outer ring bearing surfaces slides against the other one of the inner and outer ring bearing surfaces when the movable one of the first and second members angularly displaces about the first axis (A1) and each one of the inner and outer ring bearing surfaces engages against the other one of the inner and outer ring bearing surfaces so as to prevent relative displacement between the inner and outer rings when the movable one of the first and second members angularly displaces about the at least one second axis (A 2 n ); and an outer elastomeric bearing section disposed about the plain bearing section , connectable with the second member and configured such that at least a portion of the elastomeric bearing section flexes when the movable one of the first and second members angularly displaces about the second axis (A 2 n ), wherein each one of the convex outer bearing surface of the inner ring and the concave inner bearing surface of the outer ring is partially ellipsoidal, characterized in that the outer ring includes a partially spherical body . an inner plain bearing section including an inner ring connectable with the first member and having an outer convex bearing surface , and an outer ring disposed about the inner ring and having an inner concave bearing surface disposed against the inner ring bearing surface , the inner ring bearing surface and outer ring bearing surface each being configured such that one of the inner and outer ring bearing surfaces slides against the other one of the inner and outer ring bearing surfaces when the movable one of the first and second members angularly displaces about the first axis (A1) and each one of the inner and outer ring bearing surfaces engages against the other one of the inner and outer ring bearing surfaces so as to prevent relative displacement between the inner and outer rings when the movable one of the first and second members angularly displaces about the at least one second axis (A 2 n ); and an outer elastomeric bearing section disposed about the plain bearing section , connectable with the second member and configured such that at least a portion of the elastomeric bearing section flexes when the movable one of the first and second members angularly displaces about the second axis (A 2 n ),
A method for operating a conveyor in the form of a long stator linear motor with a conveyor line , along which at least two transport units (TEi, TEi+1) are moved in succession, wherein it is checked during the movement of the two transport units (TEi, TEi+1), whether a predetermined minimum distance (M) between the two transport units (TEi, TEi+1) is maintained in order to avoid a collision of the two transport units (TEi, TEi+1), wherein the minimum distance (M) to be maintained is changed in dependence on the position of the two transport units (TEi, TEi+1) along the conveyor line , characterized in that the minimum distance (M) to be maintained is changed in dependence on the dimensions of the two transport units (TEi, TEi+1) and in that the minimum distance (M) is determined from the extensions of the two transport units (TEi, TEi+1) in the conveying direction (x) and a positional proportion (ΔIi, ΔIi+1) is added to an extension of at least one transport unit (TEi, TEi+1) on a curved conveyor section (FAk, FAk+1) depending on the position and/or depending on the dimension of the transport unit (TEi, TEi+1).
A storage battery control device, comprising: a battery information acquiring unit for acquiring information on a storage battery; a first allowable current calculating unit for calculating a first allowable current of the storage battery in accordance with a rated value of a component through which a current flows by charging or discharging of the storage battery; and a second allowable current calculating unit for calculating a second allowable current of the storage battery in accordance with a charging state of the storage battery on the basis of the information acquired by the battery information acquiring unit ; characterized in further comprising a third allowable current calculating unit for calculating a third allowable current of the storage battery in accordance with a deterioration state of the storage battery on the basis of the information acquired by the battery information acquiring unit . a battery information acquiring unit for acquiring information on a storage battery; a first allowable current calculating unit for calculating a first allowable current of the storage battery in accordance with a rated value of a component through which a current flows by charging or discharging of the storage battery; and a second allowable current calculating unit for calculating a second allowable current of the storage battery in accordance with a charging state of the storage battery on the basis of the information acquired by the battery information acquiring unit ;
A star-shaped polymer having the structure according to Formula (I): wherein: each R 1 independently comprises H or an acrylate polymer, each n independently is 5 to 500, for example, 10 to 400, or 15 to 300, each X is independently O, NR 4 , or S, wherein R 4 comprises H or C 1-6 alkyl, R 2 comprises H, C 1-8 alkyl, or a functionalized acrylate polymer, and each R 3 independently comprises H, C 1-8 alkyl, or C 1-8 alkyl phosphate. each R 1 independently comprises H or an acrylate polymer, each n independently is 5 to 500, for example, 10 to 400, or 15 to 300, each X is independently O, NR 4 , or S, wherein R 4 comprises H or C 1-6 alkyl, R 2 comprises H, C 1-8 alkyl, or a functionalized acrylate polymer, and each R 3 independently comprises H, C 1-8 alkyl, or C 1-8 alkyl phosphate.
An audio communication system base station , comprising: a first communication interface operable to communicate with a headset ; characterized by : a physical cartridge connection means for connection to one of a plurality of different types of cartridges , wherein said plurality of different types of cartridges are manually and removably connectable thereto and each different type of cartridge has an associated one of a plurality of different communication protocols, and wherein the physical cartridge connection means comprises a second communication interface; means for detecting the communication protocol of a connected cartridge from the plurality of different possible communication protocols; and means for configuring the base station for use with the detected communication protocol; wherein the base station is configured such that in use when a cartridge is connected, duplex communication data can be transmitted between the connected cartridge and the base station via the second communication interface, between the base station and a remote device via the connected cartridge using the detected communication protocol, and between the base station and the headset via the first communication interface, such that thereby duplex communication data can be transmitted between the remote device and the headset via the base station . a physical cartridge connection means for connection to one of a plurality of different types of cartridges , wherein said plurality of different types of cartridges are manually and removably connectable thereto and each different type of cartridge has an associated one of a plurality of different communication protocols, and wherein the physical cartridge connection means comprises a second communication interface; means for detecting the communication protocol of a connected cartridge from the plurality of different possible communication protocols; and means for configuring the base station for use with the detected communication protocol; wherein the base station is configured such that in use when a cartridge is connected, duplex communication data can be transmitted between the connected cartridge and the base station via the second communication interface, between the base station and a remote device via the connected cartridge using the detected communication protocol, and between the base station and the headset via the first communication interface, such that thereby duplex communication data can be transmitted between the remote device and the headset via the base station .
An apparatus for performing physical access control, comprising: a housing having a dock formed in the housing ; access control electronics contained in the housing ; and a user interface on a surface of the housing configured to receive user input and optionally to provide information to a user, a modular encoder unit removably incorporated in the dock , the modular encoder being communicatively linked to the access control electronics when removably incorporated in the housing ; wherein the modular encoder unit is a credential encoder/writer configured to receive identity data from the access control electronics, write the identity data to a credential or use the identity data to bind the credential to an individual, and/or receive and write authentication data to the credential, and a securing mechanism attached to the housing for securing the modular encoder unit to the housing when the modular encoder unit is in a registered position within the dock ,and wherein the apparatus is configured to require an activation code via the user interface prior to communicatively linking to the modular encoder unit and/or to require an authorization code via the user interface prior to allowing the removal of the modular encoder unit . a housing having a dock formed in the housing ; access control electronics contained in the housing ; and a user interface on a surface of the housing configured to receive user input and optionally to provide information to a user, a modular encoder unit removably incorporated in the dock , the modular encoder being communicatively linked to the access control electronics when removably incorporated in the housing ; wherein the modular encoder unit is a credential encoder/writer configured to receive identity data from the access control electronics, write the identity data to a credential or use the identity data to bind the credential to an individual, and/or receive and write authentication data to the credential, and a securing mechanism attached to the housing for securing the modular encoder unit to the housing when the modular encoder unit is in a registered position within the dock ,and wherein the apparatus is configured to require an activation code via the user interface prior to communicatively linking to the modular encoder unit and/or to require an authorization code via the user interface prior to allowing the removal of the modular encoder unit .
A compound having formula I wherein A is a) b) R 1 is selected from aryl or heteroaryl, R 2 is selected from hydrogen, C 1-7 alkyl, R 3 is hydrogen or methyl, R 4 is hydrogen, methyl, methoxy, C(O)NR'R", R' and R" are independently selected from hydrogen and methyl, R 5 is methyl, ethyl, cyclopropyl, halomethyl, cyano, -C(O)NH 2 , R 6 is hydrogen, methyl, hydroxymethyl. Z is selected from CH or N, B is selected from C 1 -C 4 -alkylene, C 2 -C 4 -alkenylene, C 2 -C 4 -alkynylene, -O-C 1 -C 4 -. wherein A is a) b) a) b) R 1 is selected from aryl or heteroaryl, R 2 is selected from hydrogen, C 1-7 alkyl, R 3 is hydrogen or methyl, R 4 is hydrogen, methyl, methoxy, C(O)NR'R", R' and R" are independently selected from hydrogen and methyl, R 5 is methyl, ethyl, cyclopropyl, halomethyl, cyano, -C(O)NH 2 , R 6 is hydrogen, methyl, hydroxymethyl. Z is selected from CH or N, B is selected from C 1 -C 4 -alkylene, C 2 -C 4 -alkenylene, C 2 -C 4 -alkynylene, -O-C 1 -C 4 -.
Method for producing a foamed body by extrusion, comprising: - generating a plastics melt within a casing of a first extruder ; and - conveying the plastics melt to an outlet nozzle of a second extruder , wherein the conveyed plastics melt has foaming agent and expands after having been conducted through the outlet nozzle , wherein, in the first and/or second extruder, the plastics melt is conveyed by means of an extruder screw apparatus which has multiple screw spindles and a guide body having recesses in which the screw spindles are partially recessed, wherein the screw spindles are distributed coaxially with respect to the longitudinal axis of the extruder screw apparatus and circumferentially around the longitudinal axis of the extruder screw apparatus and rotate at least partially recessed within the extruder screw apparatus , and thus, before the plastics melt is guided through the outlet nozzle , temperature differences between different radial positions in the cross section of the plastics melt are reduced, and the plastics melt thermally homogenized in this way is conducted through the outlet nozzle wherein the screw spindles rotate in envelope curves which do not overlap, characterized in that , between the screw spindles in the circumferential direction of the extruder screw apparatus , on the circumferential surface of the extruder screw apparatus, there are provided sections which have structures which project into the plastics melt, by means of which the plastic melt is conveyed and/or mixed and/or pressure in the plastics melt is built up, and wherein a drive for the first extruder and a drive for the second extruder , which drives are not directly connected in motion-transmitting fashion, are operated individually. - generating a plastics melt within a casing of a first extruder ; and - conveying the plastics melt to an outlet nozzle of a second extruder , wherein the conveyed plastics melt has foaming agent and expands after having been conducted through the outlet nozzle , wherein, in the first and/or second extruder, the plastics melt is conveyed by means of an extruder screw apparatus which has multiple screw spindles and a guide body having recesses in which the screw spindles are partially recessed, wherein the screw spindles are distributed coaxially with respect to the longitudinal axis of the extruder screw apparatus and circumferentially around the longitudinal axis of the extruder screw apparatus and rotate at least partially recessed within the extruder screw apparatus , and thus, before the plastics melt is guided through the outlet nozzle , temperature differences between different radial positions in the cross section of the plastics melt are reduced, and the plastics melt thermally homogenized in this way is conducted through the outlet nozzle wherein the screw spindles rotate in envelope curves which do not overlap,
Method for operating a robot (R), which has a robot arm (M) having a plurality of links following one after the other, an attaching device for attaching an end effector and drives for moving the links , and a control device (S) connected to the drives, comprising the following method steps: - by means of a computer program running on the control device (S), initiating a command on the basis of which the robot arm (M), controlled by the control device (S), begins to carry out an application step, - detecting at least one abort condition of the command from a plurality of abort conditions, wherein at least one of the abort conditions is evaluated acyclically and the acyclically evaluated abort condition is assigned to an interrupt service routine which is triggered by events and/or sensors, - aborting the execution of the application step on the basis of the detected abort condition by aborting the initiated command, without interrupting the application in that control and control functionalities of the computer program which are encapsulated in standardised modules, comprise module-specific abort conditions, by means of which the module triggers the end of the command independently of user abort conditions, - at the same time as recognising the abort condition, conveying information about the abort condition to the computer program on the basis of which the execution of the application step was aborted and - directly due to the information about the recognised abort condition initiating one of the additional commands assigned to the recognised abort condition for controlling the robot arm (M) by means of the control device (S). - by means of a computer program running on the control device (S), initiating a command on the basis of which the robot arm (M), controlled by the control device (S), begins to carry out an application step, - detecting at least one abort condition of the command from a plurality of abort conditions, wherein at least one of the abort conditions is evaluated acyclically and the acyclically evaluated abort condition is assigned to an interrupt service routine which is triggered by events and/or sensors, - aborting the execution of the application step on the basis of the detected abort condition by aborting the initiated command, without interrupting the application in that control and control functionalities of the computer program which are encapsulated in standardised modules, comprise module-specific abort conditions, by means of which the module triggers the end of the command independently of user abort conditions, - at the same time as recognising the abort condition, conveying information about the abort condition to the computer program on the basis of which the execution of the application step was aborted and - directly due to the information about the recognised abort condition initiating one of the additional commands assigned to the recognised abort condition for controlling the robot arm (M) by means of the control device (S).
An electrically operated aerosol-generating system comprising: a main unit comprising a heating portion at an outer surface of the main unit, the heating portion comprising one or more electric heaters; and a tubular aerosol-generating article comprising: a tubular aerosol-forming substrate ; and an inner passage , wherein: the inner passage of the tubular aerosol-generating article is configured to receive the heating portion of the main unit; the one or more electric heaters are arranged to heat the tubular aerosol-forming substrate when the tubular aerosol-generating article is received on the heating portion of the main unit; and at least one of the main unit and the tubular aerosol-generating article comprises at least one retaining feature configured to removably retain the tubular aerosol-generating article on the heating portion of the main unit when the tubular aerosol-generating article is received on the heating portion of the main unit; and wherein the at least one retaining feature includes one or more of the following: protrusions, recesses, or magnetic materials. a main unit comprising a heating portion at an outer surface of the main unit, the heating portion comprising one or more electric heaters; and a tubular aerosol-generating article comprising: a tubular aerosol-forming substrate ; and an inner passage , a tubular aerosol-forming substrate ; and an inner passage , the inner passage of the tubular aerosol-generating article is configured to receive the heating portion of the main unit; the one or more electric heaters are arranged to heat the tubular aerosol-forming substrate when the tubular aerosol-generating article is received on the heating portion of the main unit; and at least one of the main unit and the tubular aerosol-generating article comprises at least one retaining feature configured to removably retain the tubular aerosol-generating article on the heating portion of the main unit when the tubular aerosol-generating article is received on the heating portion of the main unit; and wherein the at least one retaining feature includes one or more of the following: protrusions, recesses, or magnetic materials.
A delaminatable container comprising an outer layer and an inner layer and having an inner bag which is composed of the inner layer and configured to contract with a decrease in contents, wherein: the inner layer comprises, as an innermost layer, an inner EVOH layer composed of EVOH resin, the EVOH resin contained in the inner EVOH layer has an ethylene content of equal to or less than 34 mol%, characterized in that the inner EVOH layer has a thickness of equal to or more than 21 μm and equal to or less than 50 μm. the inner layer comprises, as an innermost layer, an inner EVOH layer composed of EVOH resin, the EVOH resin contained in the inner EVOH layer has an ethylene content of equal to or less than 34 mol%, characterized in that the inner EVOH layer has a thickness of equal to or more than 21 μm and equal to or less than 50 μm.
An electrolysis arrangement comprising - a plurality of electrolytic units , wherein each electrolytic unit comprises an electrolytic cell and an AC-DC power converter configured to provide DC power (U DC , I DC ) for that electrolytic cell ; - a plurality of electrolytic assemblies , wherein each electrolytic assembly comprises a number of electrolytic units ; - at least one wind turbine comprising an electrical generator with a number of armature windings , wherein each armature winding provides AC power to one electrolytic assembly ; and - a converter unit controller configured to control the AC-DC power converters of the electrolytic units on the basis of the power output of an electrical generator . - a plurality of electrolytic units , wherein each electrolytic unit comprises an electrolytic cell and an AC-DC power converter configured to provide DC power (U DC , I DC ) for that electrolytic cell ; - a plurality of electrolytic assemblies , wherein each electrolytic assembly comprises a number of electrolytic units ; - at least one wind turbine comprising an electrical generator with a number of armature windings , wherein each armature winding provides AC power to one electrolytic assembly ; and - a converter unit controller configured to control the AC-DC power converters of the electrolytic units on the basis of the power output of an electrical generator .
A polymeric material, wherein the polymeric material is formed from a thermoplastic composition containing a continuous phase that includes a matrix polymer, and further wherein a polymeric microinclusion additive and a polymeric nanoinclusion additive are dispersed within the continuous phase in the form of discrete domains, wherein the polymeric material defines a first zone that is contiguous to a second zone, wherein a porous network is formed within the first zone such that the first zone exhibits a greater pore volume than the second zone; wherein the microinclusion additive constitutes from 1 wt.% to 30 wt.% of the composition, based on the weight of the continuous phase; and wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase. wherein the microinclusion additive constitutes from 1 wt.% to 30 wt.% of the composition, based on the weight of the continuous phase; and wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase.