mhurhangee/patent-ind-claim-en huggingface dataset:
A breathable geosynthetic clay liner, which comprises an upper breathable layer , a lower breathable layer , and a breathable and impermeable sand layer sandwiched between the upper breathable layer and the lower breathable layer ; the breathable and impermeable sand layer comprises a breathable and impermeable particle and an expansive particle, and the expansive particle is added in an amount of 0.1% to 1000% of the mass of the breathable and impermeable particle; characterized in that the expansive particle is a mixture of bentonite and clay, and the mass ratio of the bentonite to the clay is 1:0.1-200; the breathable and impermeable particle comprises an aggregate and a hydrophobic film covering the aggregate; and the aggregate is medical stone, volcanic rock and kaolin in a mass ratio of 1:5-20:5-20. an upper breathable layer , a lower breathable layer , and a breathable and impermeable sand layer sandwiched between the upper breathable layer and the lower breathable layer ; the breathable and impermeable sand layer comprises a breathable and impermeable particle and an expansive particle, and the expansive particle is added in an amount of 0.1% to 1000% of the mass of the breathable and impermeable particle; characterized in that the expansive particle is a mixture of bentonite and clay, and the mass ratio of the bentonite to the clay is 1:0.1-200; the breathable and impermeable particle comprises an aggregate and a hydrophobic film covering the aggregate; and the aggregate is medical stone, volcanic rock and kaolin in a mass ratio of 1:5-20:5-20.
A smart TV, comprising a signal transmission device and a wireless signal module, wherein the signal transmission device comprises: a main antenna having a first signal input port, wherein the first signal input port is connected with the wireless signal module; a transmission antenna adjacent to and spaced from the main antenna , wherein the transmission antenna has a signal output port; and a dead-zone compensating antenna having a second signal input port, wherein the second signal input port is connected with the signal output port through a signal transmission line , and wherein the main antenna is configured to receive signals input by the wireless signal module and transmit the signals; the transmission antenna is configured to receive a part of the signals from the main antenna and transmit the part of the signals to the dead-zone compensating antenna through the signal transmission line ; the dead-zone compensating antenna is configured to transmit the received signals and compensate a signal dead zone of the main antenna . a main antenna having a first signal input port, wherein the first signal input port is connected with the wireless signal module; a transmission antenna adjacent to and spaced from the main antenna , wherein the transmission antenna has a signal output port; and a dead-zone compensating antenna having a second signal input port, wherein the second signal input port is connected with the signal output port through a signal transmission line , and wherein the main antenna is configured to receive signals input by the wireless signal module and transmit the signals; the transmission antenna is configured to receive a part of the signals from the main antenna and transmit the part of the signals to the dead-zone compensating antenna through the signal transmission line ; the dead-zone compensating antenna is configured to transmit the received signals and compensate a signal dead zone of the main antenna .
Air filter system for the intake air of an internal combustion engine, comprising - a housing having a longitudinal axis (L), - a cover which closes the housing at a front face , - an inlet disposed at the housing for supplying a medium to be filtered and an outlet disposed at the housing for discharging the filtered medium, - an exchangeable filter element which is disposed in the housing and comprises a filter body , a first open end disc disposed at a front face and a second end disc disposed at the opposite front face , - a support tube firmly attached to the housing which is concentrically disposed inside the filter element around the longitudinal axis (L), in particular for radially supporting the filter body , - an exchangeable secondary element having an open end and a closed end which is disposed inside the support tube and attached with the open end in a housing seat , wherein the filter element is mounted with the second end disc resting on the support tube and on the closed end of the secondary element on an inner cover contour in a rotationally secure manner, wherein the second end disc features a plurality of eccentric, regularly or irregularly spaced support knobs arranged circularly around the longitudinal axis for axial force transmission between the cover and the support tube , wherein the second end disc features furthermore a central support knob for axial force transmission between cover and secondary element . - a housing having a longitudinal axis (L), - a cover which closes the housing at a front face , - an inlet disposed at the housing for supplying a medium to be filtered and an outlet disposed at the housing for discharging the filtered medium, - an exchangeable filter element which is disposed in the housing and comprises a filter body , a first open end disc disposed at a front face and a second end disc disposed at the opposite front face , - a support tube firmly attached to the housing which is concentrically disposed inside the filter element around the longitudinal axis (L), in particular for radially supporting the filter body , - an exchangeable secondary element having an open end and a closed end which is disposed inside the support tube and attached with the open end in a housing seat ,
A film comprising: poly(ethylene-co-acrylic acid); and a triazine-based UVA having the structure: wherein R1 is CH 3 , R2 is CH 3 , and R3 is R1 is H, R2 is H, and R3 is -C 6 H 13 ; R1 is CH 3 , R2 is CH 3 , and R3 is or R1 is H, R2 is phenyl, and R3 is -C 6 H 13 . poly(ethylene-co-acrylic acid); and a triazine-based UVA having the structure: wherein R1 is CH 3 , R2 is CH 3 , and R3 is R1 is H, R2 is H, and R3 is -C 6 H 13 ; R1 is CH 3 , R2 is CH 3 , and R3 is or R1 is H, R2 is phenyl, and R3 is -C 6 H 13 . R1 is CH 3 , R2 is CH 3 , and R3 is R1 is H, R2 is H, and R3 is -C 6 H 13 ; R1 is CH 3 , R2 is CH 3 , and R3 is or R1 is H, R2 is phenyl, and R3 is -C 6 H 13 .
Multi-purpose safety shoe , comprising an upper assembly , provided, at the shoe toe, with a safety toe cap and a layered sole associated with said upper assembly , said layered sole comprising a lower layer adapted to come into contact with the ground, an intermediate layer associated with said upper assembly and said lower layer , respectively, and an upper layer , characterized in that there is, below said upper layer and in said intermediate layer , an antifatigue insert extends, in a rear zone of said multi-purpose safety shoe , for a length between 20% and 60% of the overall length of said layered sole ,made of a material having a resilience greater than 25% and less than 35% measured according to the measurement standard DIN 53512, said intermediate layer being made of polyurethane having a resilience greater than 35% and less than 45% measured according to the measurement standard DIN 53512.
A printing head for a continuous inkjet printer, with one or several continuous jets of ink drops , said printing head comprising means for forming drops , means for charging drops and means for deflecting drops, a high voltage generator for generating a high voltage to be applied to said means for deflecting drop, and at least one supply means for generating a charging voltage to be applied to said means for charging drops, and an electronic device for controlling said printing head, said electronic device including means forming an electronic control circuit programmed: - for receiving digital data and an analog power supply voltage from driving means of said printer and for sending digital data to these driving means , - for converting a portion of the received digital data into signals for controlling said means for forming drops, said means for charging drops and said means for deflecting drops, - for controlling said high-voltage generator in said printing head, in order to generate, in said printing head, at least one high voltage, to be applied to said means for deflecting drops, and/or for controlling said supply means in order to generate a charging voltage to be applied to said means for charging drops, wherein said high voltage and said charging voltage are generated from said power supply voltage received by the printing head from the driving means and from said digital data received from said driving means including: * the value and/or the duration of said charging voltage to be applied to said means for charging drops, * and/or a signal for controlling said high voltage generator , * and/or a signal for controlling said supply means . - for receiving digital data and an analog power supply voltage from driving means of said printer and for sending digital data to these driving means , - for converting a portion of the received digital data into signals for controlling said means for forming drops, said means for charging drops and said means for deflecting drops, - for controlling said high-voltage generator in said printing head, in order to generate, in said printing head, at least one high voltage, to be applied to said means for deflecting drops, and/or for controlling said supply means in order to generate a charging voltage to be applied to said means for charging drops, wherein said high voltage and said charging voltage are generated from said power supply voltage received by the printing head from the driving means and from said digital data received from said driving means including: * the value and/or the duration of said charging voltage to be applied to said means for charging drops, * and/or a signal for controlling said high voltage generator , * and/or a signal for controlling said supply means . * the value and/or the duration of said charging voltage to be applied to said means for charging drops, * and/or a signal for controlling said high voltage generator , * and/or a signal for controlling said supply means .
A first base station comprising: a transmitter configured to transmit a Radio Resource Control, RRC, message including configuration information related to Dual Connectivity, to a radio terminal configured to perform Dual Connectivity using a first cell operated by the first base station and a second cell operated by a second base station , the Dual Connectivity involving a bearer split over the first base station and the second base station ; and at least one processor configured to process instructions to send control information related to Dual Connectivity to the second base station , wherein the first base station is further configured to send an upper limit of transmission power for uplink transmission in the first cell and an upper limit of transmission power for uplink transmission in the second cell to the second base station . a transmitter configured to transmit a Radio Resource Control, RRC, message including configuration information related to Dual Connectivity, to a radio terminal configured to perform Dual Connectivity using a first cell operated by the first base station and a second cell operated by a second base station , the Dual Connectivity involving a bearer split over the first base station and the second base station ; and at least one processor configured to process instructions to send control information related to Dual Connectivity to the second base station , wherein the first base station is further configured to send an upper limit of transmission power for uplink transmission in the first cell and an upper limit of transmission power for uplink transmission in the second cell to the second base station .
A communication system that includes: a relay device that generates a multiplexed signal based on a first transmission signal and a second transmission signal that are transmitted from separate antennas of a transmitting device according to a MIMO scheme; and a television reception device that receives the multiplexed signal, wherein the television reception device comprises: a reception unit adapted for receiving, from the relay device , the multiplexed signal that includes a first reception signal and a second reception signal, at least one of which has undergone frequency conversion by the relay device , the first reception signal and the second reception signal, at least one of which has undergone the frequency conversion, differing in frequency from each other; a branch unit adapted for outputting a first branch signal and a second branch signal that are each identical to the multiplexed signal; a frequency conversion unit adapted for performing frequency conversion on at least one of the first branch signal and the second branch signal, such that the first reception signal included in the first branch signal and the second reception signal included in the second branch signal exist at the same frequency; and a detection unit adapted for performing MIMO detection with use of the first branch signal and the second branch signal, at least one of which has undergone the frequency conversion, wherein the detection unit performs the MIMO detection based on a phase change value that is selected from among N phase change values to vary regularly between different slots, N being an integer no smaller than two, and when denoting the N phase change values as PHASE[k], PHASE[k] satisfies: PHASE k = kπ N + Z , where Z is a fixed value. a reception unit adapted for receiving, from the relay device , the multiplexed signal that includes a first reception signal and a second reception signal, at least one of which has undergone frequency conversion by the relay device , the first reception signal and the second reception signal, at least one of which has undergone the frequency conversion, differing in frequency from each other; a branch unit adapted for outputting a first branch signal and a second branch signal that are each identical to the multiplexed signal; a frequency conversion unit adapted for performing frequency conversion on at least one of the first branch signal and the second branch signal, such that the first reception signal included in the first branch signal and the second reception signal included in the second branch signal exist at the same frequency; and a detection unit adapted for performing MIMO detection with use of the first branch signal and the second branch signal, at least one of which has undergone the frequency conversion, wherein the detection unit performs the MIMO detection based on a phase change value that is selected from among N phase change values to vary regularly between different slots, N being an integer no smaller than two, and when denoting the N phase change values as PHASE[k], PHASE[k] satisfies: PHASE k = kπ N + Z , where Z is a fixed value.
Method for controlling an electric motor of an electric bicycle, wherein the bicycle comprises the electric motor and a crank, wherein the method comprises the steps of: - detecting (S1.1) an input torque at at least two different points in time, wherein the input torque is a torque applied to the crank by a rider of the bicycle, - detecting (S1.2) a cadence of the crank at at least two different points in time, characterized by the steps of - determining (S2.1) a change in the input torque with respect to time based on the detected input torque at at least two different points in time, - determining (S2.2) a change in the cadence with respect to time based on the detected cadence at at least two different points in time, - determining (S3) a base torque depending on the change in the input torque with respect to time and depending on the change in the cadence with respect to time, wherein in the determining step (S3) the dependence of the base torque on the change in the input torque with respect to time decreases as the cadence increases, and in the determining step (S3) the dependence of the base torque on the change in the cadence with respect to time increases as the cadence increases, and - driving (S6) the electric motor with a target torque depending on the base torque. - detecting (S1.1) an input torque at at least two different points in time, wherein the input torque is a torque applied to the crank by a rider of the bicycle, - detecting (S1.2) a cadence of the crank at at least two different points in time, characterized by the steps of - determining (S2.1) a change in the input torque with respect to time based on the detected input torque at at least two different points in time, - determining (S2.2) a change in the cadence with respect to time based on the detected cadence at at least two different points in time, - determining (S3) a base torque depending on the change in the input torque with respect to time and depending on the change in the cadence with respect to time, wherein in the determining step (S3) the dependence of the base torque on the change in the input torque with respect to time decreases as the cadence increases, and in the determining step (S3) the dependence of the base torque on the change in the cadence with respect to time increases as the cadence increases, and - driving (S6) the electric motor with a target torque depending on the base torque.
A method (S700) for communicating information through a telecommunication network (S700), the telecommunication network comprising at least one server and at least one terminal exchanging a data set ; said at least one terminal being configured to implement an Internet browser ; the communication method (S700) using the data format JavaScript Object Notation, JSON, and being executed by the Internet browser and comprising a step (S710) of analyzing said data set ; the data set consisting of at least one element among: an object element , a branch element and a display element ; - the object element being configured to be unique when it is generated, and being an attribute that allows associating an informational content with a dynamic object; - the branch element being configured to comprise at least one auxiliary branch element and/or at least one terminal branch element ; and, - the display element being a program configured to create a graphic representation, the communication method comprising a step (S760) of generating a markup language HTML from said data set by the Internet browser to represent at least one Web page. - the object element being configured to be unique when it is generated, and being an attribute that allows associating an informational content with a dynamic object; - the branch element being configured to comprise at least one auxiliary branch element and/or at least one terminal branch element ; and, - the display element being a program configured to create a graphic representation,
A machine for conditioning pipes made of thermoplastic material, comprising: a station for accumulating pipes made of thermoplastic material, at which the pipes are arranged side by side and parallel to each other and in a first predetermined direction (D1) of longitudinal extension; a plurality of operational stations for conditioning respective ends of the pipes made of thermoplastic material, positioned side by side along a second predetermined direction (D2) at right angles to the first direction (D1), the operational stations comprising a station for forming bells on the ends , a positioning a device designed to pick up a group (G) of the pipes for transferring it from one of the stations to another of the stations , the positioning device comprising at least a rack designed to engage by gripping the group (G) of pipes to retain it during the transfer between the stations , the rack comprising a plurality of gripping elements , each designed to engage with one of the pipes of the group (G), characterised in that the positioning device comprises means for relative movement of the gripping elements of the rack , the movement means being configured to vary the reciprocal distance of the gripping elements and the pipes engaged with them, between at least two of the stations . a station for accumulating pipes made of thermoplastic material, at which the pipes are arranged side by side and parallel to each other and in a first predetermined direction (D1) of longitudinal extension; a plurality of operational stations for conditioning respective ends of the pipes made of thermoplastic material, positioned side by side along a second predetermined direction (D2) at right angles to the first direction (D1), the operational stations comprising a station for forming bells on the ends , a positioning a device designed to pick up a group (G) of the pipes for transferring it from one of the stations to another of the stations , the positioning device comprising at least a rack designed to engage by gripping the group (G) of pipes to retain it during the transfer between the stations , the rack comprising a plurality of gripping elements , each designed to engage with one of the pipes of the group (G), characterised in that the positioning device comprises means for relative movement of the gripping elements of the rack , the movement means being configured to vary the reciprocal distance of the gripping elements and the pipes engaged with them, between at least two of the stations .
A brake monitoring and adjustment control system, comprising: an electromechanical brake actuator controller (EBAC) ; at least one sensor operatively connected to the EBAC for sensing a characteristic of at least one of a brake , or an electromechanical brake actuator (EBA) and providing a feedback signal to the EBAC ; and characterised in that the system comprises a switch for turning power to the sensor on and off at a frequency based on an expected re-adjustment frequency to reduce the duration with voltage applied to the sensor , wherein the expected re-adjustment frequency is based on worst-case thermal expansion data from a worn brake refuse-take-off (RTO) test. an electromechanical brake actuator controller (EBAC) ; at least one sensor operatively connected to the EBAC for sensing a characteristic of at least one of a brake , or an electromechanical brake actuator (EBA) and providing a feedback signal to the EBAC ; and characterised in that the system comprises a switch for turning power to the sensor on and off at a frequency based on an expected re-adjustment frequency to reduce the duration with voltage applied to the sensor , wherein the expected re-adjustment frequency is based on worst-case thermal expansion data from a worn brake refuse-take-off (RTO) test.