mhurhangee/patent-ind-claim-en huggingface dataset:
An energy management system , comprising: a plurality of industrial automation devices ; a first energy agent embedded within a first industrial automation device of the plurality of industrial automation devices , wherein the first energy agent is configured to: monitor one or more energy properties that correspond to the first industrial automation device ; and adjust one or more operations of the first industrial automation device based at least in part on the energy properties and an energy objective; and a second energy agent embedded in a second industrial automation device of the plurality of industrial automation devices, wherein the second energy agent is not capable of monitoring one or more energy properties that correspond to the second industrial automation device, and wherein the second energy agent is configured to receive the one or more energy properties that correspond to the second industrial automation device from the first energy agent. a plurality of industrial automation devices ; a first energy agent embedded within a first industrial automation device of the plurality of industrial automation devices , wherein the first energy agent is configured to: monitor one or more energy properties that correspond to the first industrial automation device ; and adjust one or more operations of the first industrial automation device based at least in part on the energy properties and an energy objective; and monitor one or more energy properties that correspond to the first industrial automation device ; and adjust one or more operations of the first industrial automation device based at least in part on the energy properties and an energy objective; and a second energy agent embedded in a second industrial automation device of the plurality of industrial automation devices, wherein the second energy agent is not capable of monitoring one or more energy properties that correspond to the second industrial automation device, and wherein the second energy agent is configured to receive the one or more energy properties that correspond to the second industrial automation device from the first energy agent.
A handheld electrical power tool , which comprises: a working device for performing a working function of the handheld electrical power tool ; a power device including a motor for driving the working device ; a power supplying unit for powering the power device ; an operating device for a user to operate the handheld electrical power tool ; and wherein the operating device comprises an operating handle and a speed regulating device arranged adjacently to the operating handle , the speed regulating device comprises a speed regulating switch and a speed regulating operating member connected with the speed regulating switch to drive the speed regulating switch to operate, when the rotational speed of the motor increasing from zero to the maximum, the rotation angle of the speed regulating operating member is 0-360°, characterized in that , the operating device further comprises a starting device , and wherein the starting device comprises a main control switch , a main control operating member for starting the main control switch and a safety operating member located opposite to the main control operating member , and wherein one end of the main control operating member is disposed adjacently to the safety operating member , and the main control operating member and the safety operating member are engaged with each other in the non-operating state. a working device for performing a working function of the handheld electrical power tool ; a power device including a motor for driving the working device ; a power supplying unit for powering the power device ; an operating device for a user to operate the handheld electrical power tool ; and wherein the operating device comprises an operating handle and a speed regulating device arranged adjacently to the operating handle , the speed regulating device comprises a speed regulating switch and a speed regulating operating member connected with the speed regulating switch to drive the speed regulating switch to operate, when the rotational speed of the motor increasing from zero to the maximum, the rotation angle of the speed regulating operating member is 0-360°, characterized in that , the operating device further comprises a starting device , and wherein the starting device comprises a main control switch , a main control operating member for starting the main control switch and a safety operating member located opposite to the main control operating member , and wherein one end of the main control operating member is disposed adjacently to the safety operating member , and the main control operating member and the safety operating member are engaged with each other in the non-operating state.
A silicone adhesive composition, comprising (A) an addition reaction-curable silicone, (B1) a compound having at least two unsaturated hydrocarbon groups and two (poly) oxyalkylene residues in one molecule, and (C) an ionic liquid containing no lithium, wherein the amount of component (B1) is 0.27 to 3.3 parts by mass and the amount of component (C) is 0.003 to 1.5 parts by mass, relative to 100 parts by mass of the addition curable silicone (A), and wherein said two (poly)oxyalkylene residues are each represented by - (C 2 H 4 O) m -(C 3 H 6 O) n - wherein m is a real number of 0 to 20, n is a real number of 0 to 10, m+n is 1 to 30, and (C 2 H 4 O) and (C 3 H 6 O)may be bonded in random order. (A) an addition reaction-curable silicone, (B1) a compound having at least two unsaturated hydrocarbon groups and two (poly) oxyalkylene residues in one molecule, and (C) an ionic liquid containing no lithium,
Sensor module , comprising: a sensor carrier which is designed to receive a sensor ; and a housing ; wherein the housing has two coaxial cylindrical receptacles , in which cylindrical ends of the sensor carrier are rotatably mounted about an axis (A), wherein the sensor module is designed to fix the sensor carrier in an adjustable angular position relative to the housing by generating a frictional or form-fitting connection between the housing and a lateral surface region of the sensor carrier , and wherein the housing has a cuboid, two-part or multi-part hollow body having a continuous opening formed in three sides (10f-1, 10f-2, 10f-3) of the cuboid hollow body , through which opening a region of the sensor carrier between the ends of the sensor carrier is exposed, wherein the exposed region delimits a cylindrical portion of the sensor carrier in the axial direction (A), which cylindrical portion has the lateral surface region for generating the frictional or form-fitting connection with the housing . a sensor carrier which is designed to receive a sensor ; and a housing ; wherein the housing has two coaxial cylindrical receptacles , in which cylindrical ends of the sensor carrier are rotatably mounted about an axis (A), wherein the sensor module is designed to fix the sensor carrier in an adjustable angular position relative to the housing by generating a frictional or form-fitting connection between the housing and a lateral surface region of the sensor carrier , and wherein the housing has a cuboid, two-part or multi-part hollow body having a continuous opening formed in three sides (10f-1, 10f-2, 10f-3) of the cuboid hollow body , through which opening a region of the sensor carrier between the ends of the sensor carrier is exposed, wherein the exposed region delimits a cylindrical portion of the sensor carrier in the axial direction (A), which cylindrical portion has the lateral surface region for generating the frictional or form-fitting connection with the housing .
A system for sealing a cable connection against external elements comprising: a housing (1002, 1202A-B, 1302, 1302') having at least one contour (1003A, 1011A-F, 1311F) provided on the exterior of the housing, and at least one first sealing portion associated with respective ones of the at least one contour, each first sealing portion positioned at a first end of the housing and aligned with the corresponding contour of the at least one contour characterized in that each first sealing portion is configured to secure at least one cable connection element ; and the system comprises: at least one duct (1020A, 1320A-F) positioned on respective ones of the at least one contour, each duct having a first end and a second end and being configured to internally accommodate the at least one cable connection element and at least one end of a cable , the first end of the duct being engageable to the first sealing portion such that when the first sealing portion is engaged to the first end of the duct a watertight seal is created between the first sealing portion and the first end of the duct, and the second end of the duct being engageable to a second sealing portion (1010A-F, 1210A-F, 1310A-K, 1310A'-E') such that when the second sealing portion is secured to the second end of the duct and the cable is engaged to the second sealing portion, a watertight seal is created between the second sealing portion and the second end of the duct and between the second sealing portion and the end of the cable, and a portion of the duct proximate to the second end of the duct is disposed on the respective ones of the at least one contour.
Container arrangement for a vehicle, having a container which is arranged in a closed-off cavity of a vehicle body structure , wherein at least one mechanical interface having a container-side first connecting piece (14.1) and a vehicle body-side second connecting piece (14.2) is present, which is designed both for fastening the container to the vehicle body structure as well as for filling and/or emptying the container , characterised in that in a circumferentially formed gap between a shell of the container and a wall, formed by the vehicle body structure , of the cavity is introduced a material which can be expanded by the action of temperature.
An automated truck transmission, comprising: a transmission housing , an input shaft configured to couple to a prime mover for receiving torque therefrom, the input shaft having a first plurality of gear coupleable thereto; a countershaft having a second plurality of gears mounted thereon; a main shaft having a third plurality of gears rotatably mounted thereon, the first plurality of gears and the third plurality of gears are in meshing engagement with respective ones of the second plurality of gears ; an output shaft selectively providing a torque output to a driveline; a shift actuator structured to engage a plurality of shift forks to selectively couple the input shaft to the main shaft by rotatably coupling at least one of the first plurality of gears to the input shaft and the third plurality of gears to the main shaft , wherein the shift actuator is mounted on an exterior wall of the transmission housing , and wherein the countershaft and the main shaft are at least partially positioned within the housing ; an integrated actuator housing , wherein the shift actuator is operationally coupled to the integrated actuator housing , and further comprising a clutch actuator housing mounted to the integrated actuator housing, wherein a linear clutch actuator is positioned at least partially within the clutch actuator housing , characterized in that the linear clutch actuator is a self-adjusting actuator and the transmission further comprises a self-adjusting clutch that is actuated by the linear clutch actuator. a transmission housing , an input shaft configured to couple to a prime mover for receiving torque therefrom, the input shaft having a first plurality of gear coupleable thereto; a countershaft having a second plurality of gears mounted thereon; a main shaft having a third plurality of gears rotatably mounted thereon, the first plurality of gears and the third plurality of gears are in meshing engagement with respective ones of the second plurality of gears ; an output shaft selectively providing a torque output to a driveline; a shift actuator structured to engage a plurality of shift forks to selectively couple the input shaft to the main shaft by rotatably coupling at least one of the first plurality of gears to the input shaft and the third plurality of gears to the main shaft , wherein the shift actuator is mounted on an exterior wall of the transmission housing , and wherein the countershaft and the main shaft are at least partially positioned within the housing ; an integrated actuator housing , wherein the shift actuator is operationally coupled to the integrated actuator housing , and further comprising a clutch actuator housing mounted to the integrated actuator housing, wherein a linear clutch actuator is positioned at least partially within the clutch actuator housing , characterized in that the linear clutch actuator is a self-adjusting actuator and the transmission further comprises a self-adjusting clutch that is actuated by the linear clutch actuator.
A shaker device comprising at least one motorised member that is intended to transmit by contact a shaking force to objects to be shaken, said member including at least one structural insert that is covered by a distinct wear jacket , characterised in that said structural insert includes a reinforcement included in a matrix that is covered by the jacket , said matrix being based on a plastic material which is of the same chemical nature as the material of the jacket , wherein plastic material is of the same chemical nature if they belong to the same class, i.e., having at least one same repeating chemical group, characteristic for that class, on their main chain, and wherein the material of the matrix adhering to the reinforcement and to the material of the jacket .
A control device for controlling a wind turbine , the wind turbine comprising a rotor and at least one blade being rotatable mounted to the rotor , the control device comprising: a detecting device being configured to detect an amount of a bending moment of the blade; and a change element having an input and an output, wherein the input is configured to receive the detected amount of the bending moment of the blade from the detecting device , and the output is configured to output a response based on a differential or derivative of the detected amount of the bending moment of the blade ; wherein the differential or derivative provides a phase lead over changes in rotor speed, enabling the control device to react to changing wind conditions, wherein the control device is configured to control the wind turbine based on the phase lead provided by the differential or derivative , wherein the control device is configured to modify a speed control of the rotor by increasing a torque reference, a power reference and/or a pitch reference when the derivative or difference is positive, and/or by decreasing the torque reference, the power reference and/or the pitch reference when the derivative or difference is negative. a detecting device being configured to detect an amount of a bending moment of the blade; and a change element having an input and an output, wherein the input is configured to receive the detected amount of the bending moment of the blade from the detecting device , and the output is configured to output a response based on a differential or derivative of the detected amount of the bending moment of the blade ; wherein the differential or derivative provides a phase lead over changes in rotor speed, enabling the control device to react to changing wind conditions, wherein the control device is configured to control the wind turbine based on the phase lead provided by the differential or derivative , wherein the control device is configured to modify a speed control of the rotor by increasing a torque reference, a power reference and/or a pitch reference when the derivative or difference is positive, and/or by decreasing the torque reference, the power reference and/or the pitch reference when the derivative or difference is negative.
A turbine for generating electrical power, comprising a plurality of rotatable turbine blades associated with a swept area; wherein the turbine is connectable to a region of a subsea riser pipe or umbilical to generate power via respective motion of seawater through said swept area; and wherein each of the turbine blades has a first end and a further end, and the turbine comprises a first rotatable blade support connected to all the first ends of the blades and a further rotatable blade support connected to all the further ends of the blades ; and each blade support is located with respect to the pipe or umbilical via a ring connector and a bearing element between the ring connector and the blade support . wherein the turbine is connectable to a region of a subsea riser pipe or umbilical to generate power via respective motion of seawater through said swept area; and wherein each of the turbine blades has a first end and a further end, and the turbine comprises a first rotatable blade support connected to all the first ends of the blades and a further rotatable blade support connected to all the further ends of the blades ; and each blade support is located with respect to the pipe or umbilical via a ring connector and a bearing element between the ring connector and the blade support .
A method of measuring the casing depth in pile foundation with an attachment for a carrier machine comprising a table for clamping a pipe , wherein the vertical movement of the table is measured indirectly or directly by sensors and is totalled to calculate the current casing depth, characterised in that to determine the vertical movement of the table , the movement and/or position of a steering rod, which is connected in an articulated manner to the table on the one hand and to a fixed part of the attachment on the other hand, is measured and a vertical movement of the table is taken into account for calculating the casing depth only when the casing is firmly clamped in the table .
A server comprising: a reconfigurable adapter device , the reconfigurable adapter device including a reconfigurable resource reprogrammable to perform different hardware functions, wherein the server is configured to receive a provisioning request corresponding to a hardware function; and wherein the reconfigurable adapter device is configured to: i) configure the reconfigurable resource according to the hardware function; and characterized by : at least one of: during a reboot of the server, or after i) and during a reboot of the reconfigurable adapter device, ii) report the hardware function of the reconfigurable resource to the server, to identify the reconfigurable adapter device as a reconfigurable adapter device of the server having been configured according to the hardware function. a reconfigurable adapter device , the reconfigurable adapter device including a reconfigurable resource reprogrammable to perform different hardware functions, wherein the server is configured to receive a provisioning request corresponding to a hardware function; and wherein the reconfigurable adapter device is configured to: i) configure the reconfigurable resource according to the hardware function; and characterized by : at least one of: during a reboot of the server, or after i) and during a reboot of the reconfigurable adapter device, ii) report the hardware function of the reconfigurable resource to the server, to identify the reconfigurable adapter device as a reconfigurable adapter device of the server having been configured according to the hardware function. i) configure the reconfigurable resource according to the hardware function; and characterized by : at least one of: during a reboot of the server, or after i) and during a reboot of the reconfigurable adapter device, during a reboot of the server, or after i) and during a reboot of the reconfigurable adapter device, ii) report the hardware function of the reconfigurable resource to the server, to identify the reconfigurable adapter device as a reconfigurable adapter device of the server having been configured according to the hardware function.
A communication apparatus using a carrier aggregation comprising at least two downlink component carriers and at least one uplink component carrier, the communication apparatus comprising: a transmitter , which is adapted, a) to transmit, in operation, first downlink resource allocation information for a first downlink component carrier and uplink resource allocation information for an uplink component carrier on the first downlink component carrier, b) to transmit, in operation, second downlink resource allocation information for a second downlink component carrier, which is different from the first downlink component carrier, c) to transmit, in operation, first downlink data on the first downlink component carrier in accordance with the first downlink resource allocation information, and d) to transmit, in operation, second downlink data on the second downlink component carrier in accordance with the second downlink resource allocation information; and a receiver , which is adapted to receive, in operation, uplink data on the uplink component carrier in accordance with the uplink resource allocation information, wherein the transmitter is further adapted to transmit, in operation, an Acknowledgement/Negative-acknowledgement, ACK/NACK, signal for the uplink data only on the first downlink component carrier, on which the uplink resource allocation information is transmitted, out of the first downlink component carrier and the second downlink component carrier. a transmitter , which is adapted, a) to transmit, in operation, first downlink resource allocation information for a first downlink component carrier and uplink resource allocation information for an uplink component carrier on the first downlink component carrier, b) to transmit, in operation, second downlink resource allocation information for a second downlink component carrier, which is different from the first downlink component carrier, c) to transmit, in operation, first downlink data on the first downlink component carrier in accordance with the first downlink resource allocation information, and d) to transmit, in operation, second downlink data on the second downlink component carrier in accordance with the second downlink resource allocation information; and a receiver , which is adapted to receive, in operation, uplink data on the uplink component carrier in accordance with the uplink resource allocation information, wherein the transmitter is further adapted to transmit, in operation, an Acknowledgement/Negative-acknowledgement, ACK/NACK, signal for the uplink data only on the first downlink component carrier, on which the uplink resource allocation information is transmitted, out of the first downlink component carrier and the second downlink component carrier.