mhurhangee/ep-ind-claims huggingface dataset:
An absorbent liquid which absorbs at least one of CO 2 and H 2 S in a gas, comprising components of: (a) a secondary linear monoamine, the secondary linear monoamine being N-(ethylamino)ethanol or N-(butylamino)ethanol; a tertiary linear monoamine, the tertiary linear monoamine being N-methyldiethanolamine, N-ethyldiethanolamine, N-butyldiethanolamine or 2-(diethylamino)ethanol; and (c) a secondary cyclic diamine, the secondary cyclic diamine being piperazine or 2-methylpiperazine, wherein a concentration of each of the components is less than 30% by weight, and the concentration of each of (a) a secondary linear monoamine, and a tertiary linear monoamine is more than 10% by weight and the concentration of (c) a secondary cyclic diamine is more than 1% by weight, wherein a total concentration of (a) the secondary linear monoamine, the tertiary linear monoamine, and (c) the secondary cyclic diamine is 70% by weight or less, and wherein the concentration of (c) the secondary cyclic diamine is less than the concentration of (a) the secondary linear monoamine and is less than the concentration of the tertiary linear monoamine in weight percent relative to the absorbent liquid. (a) a secondary linear monoamine, the secondary linear monoamine being N-(ethylamino)ethanol or N-(butylamino)ethanol; a tertiary linear monoamine, the tertiary linear monoamine being N-methyldiethanolamine, N-ethyldiethanolamine, N-butyldiethanolamine or 2-(diethylamino)ethanol; and (c) a secondary cyclic diamine, the secondary cyclic diamine being piperazine or 2-methylpiperazine, wherein a concentration of each of the components is less than 30% by weight, and the concentration of each of (a) a secondary linear monoamine, and a tertiary linear monoamine is more than 10% by weight and the concentration of (c) a secondary cyclic diamine is more than 1% by weight, wherein a total concentration of (a) the secondary linear monoamine, the tertiary linear monoamine, and (c) the secondary cyclic diamine is 70% by weight or less, and wherein the concentration of (c) the secondary cyclic diamine is less than the concentration of (a) the secondary linear monoamine and is less than the concentration of the tertiary linear monoamine in weight percent relative to the absorbent liquid.
Method for embedding sensor data into a map, comprising the method steps of: determining a vehicle movement of a motor vehicle in a local reference system of the motor vehicle; transforming at least one GPS position of the motor vehicle into the local reference system of the motor vehicle; linking the vehicle movement of the motor vehicle with the at least one GPS position based on at least one time stamp to form a vehicle trajectory in the local reference system of the motor vehicle; linking local sensor data, comprising lateral distance values which are detected by means of at least one distance sensor of the motor vehicle and are each provided with a time stamp, with the vehicle trajectory to form localized sensor values in the local reference system of the motor vehicle; transforming the localized sensor values back into globalized sensor values concerning lateral distance values, which are assigned to GPS positions; and embedding the globalized sensor values and the information derived therefrom regarding free parking spaces and the sizes of free parking spaces into the map. determining a vehicle movement of a motor vehicle in a local reference system of the motor vehicle; transforming at least one GPS position of the motor vehicle into the local reference system of the motor vehicle; linking the vehicle movement of the motor vehicle with the at least one GPS position based on at least one time stamp to form a vehicle trajectory in the local reference system of the motor vehicle; linking local sensor data, comprising lateral distance values which are detected by means of at least one distance sensor of the motor vehicle and are each provided with a time stamp, with the vehicle trajectory to form localized sensor values in the local reference system of the motor vehicle; transforming the localized sensor values back into globalized sensor values concerning lateral distance values, which are assigned to GPS positions; and embedding the globalized sensor values and the information derived therefrom regarding free parking spaces and the sizes of free parking spaces into the map.
Tyre comprising: - a tread band on which a radially outer tread surface is defined, - a first plurality of blocks (6a, 6b) provided on said tread band, - at least a first sipe of the restrained type extending on at least one block of said first plurality in a substantially axial direction defined on said tread band, said first sipe being configured so as to define, between a first and a second block portion divided by said first sipe, at least two separate and distinct couplings of the male/female type such as to prevent the mutual displacement of said first and said second block portion in any direction which, at said block, is substantially tangential to said tread surface, and such as to permit mutual displacement of said first and said second block portion in a direction incident to said tread surface, said first sipe not intersecting in said block any other sipe of the restrained type, characterised in that on said at least one block (6a, 6b) of said first plurality, a second sipe of the non-restrained type is provided, configured so as to permit, between respective block portions (21, 22) divided by said second sipe, mutual displacement in at least one direction substantially tangential to said tread surface. - a tread band on which a radially outer tread surface is defined, - a first plurality of blocks (6a, 6b) provided on said tread band, - at least a first sipe of the restrained type extending on at least one block of said first plurality in a substantially axial direction defined on said tread band,
A system comprising: - at least one platform (13, 53, 13') configured for, in use, having a person on it, said platform (13, 53, 13') comprising a plurality of sensors configured for capturing information of forces/pressures applied by the feet of the person or of the position of the person's feet; - means for, from said captured information, respectively extracting (65, 65') either a center of pressure or the position of the feet; - at least one reference module disposed at a fixed location with respect to said platform (13, 53, 13'); - at least one sensor (11 111 1011) which, in use, is connected to the body of the person situated on said platform (13, 53, 13'), the sensor being configured for capturing at least one reference signal provided by said at least one reference module; the system (10, 20) further comprising: - processing means for extracting information from said at least one captured reference signal and for estimating from said reference signal the position and orientation of said at least one sensor with respect to the at least one reference module; - processing means for estimating the position and orientation of the body of said person from said determined position and orientation of the at least one sensor in turn obtained from said at least one reference signal; - processing means for calculating a stability index from said position and orientation of the body of said person and from said extracted feet position or center of pressure. - at least one platform (13, 53, 13') configured for, in use, having a person on it, said platform (13, 53, 13') comprising a plurality of sensors configured for capturing information of forces/pressures applied by the feet of the person or of the position of the person's feet; - means for, from said captured information, respectively extracting (65, 65') either a center of pressure or the position of the feet; - at least one reference module disposed at a fixed location with respect to said platform (13, 53, 13'); - at least one sensor (11 111 1011) which, in use, is connected to the body of the person situated on said platform (13, 53, 13'), the sensor being configured for capturing at least one reference signal provided by said at least one reference module; - processing means for extracting information from said at least one captured reference signal and for estimating from said reference signal the position and orientation of said at least one sensor with respect to the at least one reference module; - processing means for estimating the position and orientation of the body of said person from said determined position and orientation of the at least one sensor in turn obtained from said at least one reference signal; - processing means for calculating a stability index from said position and orientation of the body of said person and from said extracted feet position or center of pressure.
A fiber patch cord apparatus, comprising: a crawling unit, configured to move, on a crawling guide rail provided by a port panel, to a corresponding position of a source adapter port; a clamping unit, configured to clamp a fiber patch cord on the source adapter port; and a pulling and insertion unit, configured to pull the fiber patch cord out of the source adapter port, wherein the crawling unit is further configured to move, on the crawling guide rail provided by the port panel, to a corresponding position of a target adapter port; the pulling and insertion unit is further configured to insert the fiber patch cord into the target adapter port; and the fiber patch cord apparatus is adapted to be located on the port panel, the crawling guide rail is formed by connecting a sub guide rail on a first mold strip to a sub guide rail on at least one mold strip adjacent to the first mold strip in a second direction, the first mold strip is any mold strip in at least two mold strip groups arranged in an array on the port panel along the second direction, each of the mold strip groups can move along a first direction, each of the mold strip groups comprises at least two mold strips arranged in an array along the first direction, an adapter port is disposed on each of the mold strips, and the second direction is perpendicular to the first direction. a crawling unit, configured to move, on a crawling guide rail provided by a port panel, to a corresponding position of a source adapter port; a clamping unit, configured to clamp a fiber patch cord on the source adapter port; and a pulling and insertion unit, configured to pull the fiber patch cord out of the source adapter port, wherein the crawling unit is further configured to move, on the crawling guide rail provided by the port panel, to a corresponding position of a target adapter port; the pulling and insertion unit is further configured to insert the fiber patch cord into the target adapter port; and the fiber patch cord apparatus is adapted to be located on the port panel, the crawling guide rail is formed by connecting a sub guide rail on a first mold strip to a sub guide rail on at least one mold strip adjacent to the first mold strip in a second direction, the first mold strip is any mold strip in at least two mold strip groups arranged in an array on the port panel along the second direction, each of the mold strip groups can move along a first direction, each of the mold strip groups comprises at least two mold strips arranged in an array along the first direction, an adapter port is disposed on each of the mold strips, and the second direction is perpendicular to the first direction.
High-pressure cleaning appliance comprising a housing having a motor and a pump for a cleaning liquid, driven by the motor, arranged therein, and comprising at least two rotatably mounted running wheels (30, 32) for moving the high-pressure cleaning appliance, a push bar movable back and forth between a parking position and an operating position, and a locking device for releasably locking the push bar in the parking position and/or in the operating position, wherein the locking device comprises an actuating member which is coupled by at least one coupling member (69, 70) to at least one locking member (72, 73) which interacts with the push bar and is movable from a locking position to a release position by actuating the actuating member, wherein the locking device comprises a prefabricated constructional unit which forms the actuating member, the at least one coupling member (69, 70) and the at least one locking member (72, 73) and is movably mounted on or in the housing, and wherein the actuating member comprises an actuating ram, and in that the at least one coupling member (69, 70) comprises a first and a second end (75, 76; 78, 79), wherein it is articulated at the first end (75; 78) to the actuating ram and at the second end (76; 79) to a locking member (72, 73), characterized in that the at least one coupling member (69, 70) is integrally connected to the actuating ram by a film hinge (81, 84) on the ram side, and in that the at least one coupling member (69, 70) is integrally connected to a locking member (72, 73) by a film hinge (82, 85) on the locking side.
A method for preparing a functionalized polymer, the method comprising the steps of: (i) polymerizing monomer to form a reactive polymer; and (ii) reacting the reactive polymer with a protected polyoxime compound, where the protected polyoxime compound includes two or more protected oxime groups, and where the two or more protected oxime groups are defined by the formula I where each R 1 is independently a hydrogen atom or a monovalent organic group, each R 2 is independently a monovalent organic group, and R 3 is a bond or a divalent organic group, or where two R 1 groups join to form a divalent organic group, or where an R 1 group and an R 3 group join to form a trivalent organic group, and wherein the protected polyoxime is selected from the group consisting of O-silyl dioximes, O-silyl trioximes, and O-silyl tetraoximes. (i) polymerizing monomer to form a reactive polymer; and (ii) reacting the reactive polymer with a protected polyoxime compound, where the protected polyoxime compound includes two or more protected oxime groups, and where the two or more protected oxime groups are defined by the formula I where each R 1 is independently a hydrogen atom or a monovalent organic group, each R 2 is independently a monovalent organic group, and R 3 is a bond or a divalent organic group, or where two R 1 groups join to form a divalent organic group, or where an R 1 group and an R 3 group join to form a trivalent organic group, and wherein the protected polyoxime is selected from the group consisting of O-silyl dioximes, O-silyl trioximes, and O-silyl tetraoximes.
A working fluid composition for a refrigerating machine, comprising: a refrigerating machine oil comprising an ester of a polyhydric alcohol and a fatty acid, an epoxy compound, and a phosphorus compound; and a fluoropropene refrigerant, wherein the polyhydric alcohol constituting the ester comprises pentaerythritol and dipentaerythritol, the fatty acid constituting the ester comprises at least one selected from fatty acids having 4 to 9 carbon atoms, and the epoxy compound and the phosphorus compound satisfy a condition represented by the following formula: [Formula 1] 0.10 ≦ N E M E ⋅ W E N P M P ⋅ W P ≦ 1.50 wherein N E represents a number of epoxy groups per one molecule of the epoxy compound, M E represents a molecular weight of the epoxy compound, W E represents a content of the epoxy compound based on a total amount of the refrigerating machine oil, N P represents a number of phosphorus atoms per one molecule of the phosphorus compound, M P represents a molecular weight of the phosphorus compound, and W P represents a content of the phosphorus compound based on the total amount of the refrigerating machine oil. a refrigerating machine oil comprising an ester of a polyhydric alcohol and a fatty acid, an epoxy compound, and a phosphorus compound; and a fluoropropene refrigerant, wherein the polyhydric alcohol constituting the ester comprises pentaerythritol and dipentaerythritol, the fatty acid constituting the ester comprises at least one selected from fatty acids having 4 to 9 carbon atoms, and the epoxy compound and the phosphorus compound satisfy a condition represented by the following formula: [Formula 1] 0.10 ≦ N E M E ⋅ W E N P M P ⋅ W P ≦ 1.50 wherein N E represents a number of epoxy groups per one molecule of the epoxy compound, M E represents a molecular weight of the epoxy compound, W E represents a content of the epoxy compound based on a total amount of the refrigerating machine oil, N P represents a number of phosphorus atoms per one molecule of the phosphorus compound, M P represents a molecular weight of the phosphorus compound, and W P represents a content of the phosphorus compound based on the total amount of the refrigerating machine oil.
A kit for infiltrating enamel, comprising: (a) a conditioner comprising hydrochloric acid; (b) a device for removing the conditioner prior to application of an infiltrant; and (c) a light curing infiltrant comprising at least one low viscous light curing resin selected from the group comprising methacrylates, dimethacrylates and trimethacrylates, the infiltrant having a penetration coefficient of > 100 cm/s using the following equation: PC = γ ⋅ cos θ 2 η wherein: PC refers to the penetration coefficient; γ refers to the surface tension of the liquid resin (to air); θ refers to the contact angle of the liquid resin (to enamel); η refers to dynamic viscosity of the liquid resin. (a) a conditioner comprising hydrochloric acid; (b) a device for removing the conditioner prior to application of an infiltrant; and (c) a light curing infiltrant comprising at least one low viscous light curing resin selected from the group comprising methacrylates, dimethacrylates and trimethacrylates, the infiltrant having a penetration coefficient of > 100 cm/s using the following equation: PC = γ ⋅ cos θ 2 η wherein: PC refers to the penetration coefficient; γ refers to the surface tension of the liquid resin (to air); θ refers to the contact angle of the liquid resin (to enamel); η refers to dynamic viscosity of the liquid resin. PC refers to the penetration coefficient; γ refers to the surface tension of the liquid resin (to air); θ refers to the contact angle of the liquid resin (to enamel); η refers to dynamic viscosity of the liquid resin.
A radio communication system that includes a radio access network and a radio communication apparatus, the radio communication apparatus comprising: a control unit that is configured to calculate a start value for ciphering a radio access bearer, RAB, for a circuit switched domain, if said RAB is reconfigured between a Dedicated Channel, DCH and an Enhanced uplink DCH / High Speed Downlink Packet Access, E-DCH/HSDPA, and if a radio access bearer corresponding to RAB information exists as an established radio access bearer and if there exists no Transparent Mode, TM, radio bearer for a core network domain that is designated by a core network domain ID information element, and at least one TM radio bearer is included in an 'RB information to set up' information element; and a transmitter configured to transmit said start value to said radio access network. a control unit that is configured to calculate a start value for ciphering a radio access bearer, RAB, for a circuit switched domain, if said RAB is reconfigured between a Dedicated Channel, DCH and an Enhanced uplink DCH / High Speed Downlink Packet Access, E-DCH/HSDPA, and if a radio access bearer corresponding to RAB information exists as an established radio access bearer and if there exists no Transparent Mode, TM, radio bearer for a core network domain that is designated by a core network domain ID information element, and at least one TM radio bearer is included in an 'RB information to set up' information element; and a transmitter configured to transmit said start value to said radio access network.
A computer implemented method for estimating a dose distribution over a three-dimensional range of voxels proposed to contain a subject resulting from one or more beams, each beam comprising a spatially varying two-dimensional intensity distribution characterized by a two-dimensional grid of beamlets wherein each beamlet is associated with a corresponding intensity value, the method comprising, for each of the one or more beams: associating a ray line with each beamlet, the ray line representing a projection of the beamlet into space; convolving the two-dimensional intensity distribution with a two-dimensional dose estimate kernel to obtain a two-dimensional convolved intensity distribution, the two-dimensional dose estimate kernel being a function of first and second position coordinates defined in a plane containing the two-dimensional grid of beamlets, the two-dimensional convolved intensity distribution comprising a convolved intensity value for each beamlet in the two-dimensional grid of beamlets; and for each beamlet in the two-dimensional grid of beamlets: identifying voxels in the three-dimensional range of voxels that are intersected by the ray line associated with the beamlet; and adding a dose contribution to the intersected voxels, the added dose contribution based on the convolved intensity value of the beamlet. associating a ray line with each beamlet, the ray line representing a projection of the beamlet into space; convolving the two-dimensional intensity distribution with a two-dimensional dose estimate kernel to obtain a two-dimensional convolved intensity distribution, the two-dimensional dose estimate kernel being a function of first and second position coordinates defined in a plane containing the two-dimensional grid of beamlets, the two-dimensional convolved intensity distribution comprising a convolved intensity value for each beamlet in the two-dimensional grid of beamlets; and for each beamlet in the two-dimensional grid of beamlets: identifying voxels in the three-dimensional range of voxels that are intersected by the ray line associated with the beamlet; and adding a dose contribution to the intersected voxels, the added dose contribution based on the convolved intensity value of the beamlet. identifying voxels in the three-dimensional range of voxels that are intersected by the ray line associated with the beamlet; and adding a dose contribution to the intersected voxels, the added dose contribution based on the convolved intensity value of the beamlet.
Wall box for charging mobile battery packs from a battery storage system, wherein the wall box has a housing having a supply connection and a charging connection, and a wall box controller is arranged in the housing of the wall box, wherein the battery storage system is connected to the supply connection of the wall box by a supply line, and the charging connection of the wall box is designed for electrical connection to the mobile battery pack, and having a DC-to-DC converter arranged in the housing of the wall box, which DC-to-DC converter matches a DC voltage supplied from the battery storage system via the supply line to a charging voltage of the mobile battery pack, and having a communication connection between the wall box controller and the battery storage system, wherein the single electrical supply line connected to the wall box is a DC current line, and the DC current line is a two-wire line from which the charging current for the charging connection is fed, characterized in that the DC current line supplies the operating current for the wall box and is designed as a common line for the electrical energy supply and communication connection between the wall box and the battery storage system.