mhurhangee/ep-ind-claims huggingface dataset:
A pickup assembly for an agricultural harvester, the pickup assembly comprising: - a pickup assembly frame, - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a feeding auger, configured to receive the crop from the pickup unit and feed the crop towards a crop inlet of the agricultural harvester, - a wind guard assembly comprising a wind guard frame and a wind guard lifting mechanism coupled to the pickup assembly frame and the wind guard frame and comprising an actuator for lifting the wind guard frame from an operational configuration to a lifted configuration, - a lock switch, and - an electronic circuit, operatively coupled to the lock switch and the actuator and configured to block control instructions from reaching the actuator when the lock switch is in an activated state and to allow control instructions to reach the actuator when the lock switch is in a deactivated state. - a pickup assembly frame, - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a feeding auger, configured to receive the crop from the pickup unit and feed the crop towards a crop inlet of the agricultural harvester, - a wind guard assembly comprising a wind guard frame and a wind guard lifting mechanism coupled to the pickup assembly frame and the wind guard frame and comprising an actuator for lifting the wind guard frame from an operational configuration to a lifted configuration, - a lock switch, and - an electronic circuit, operatively coupled to the lock switch and the actuator and configured to block control instructions from reaching the actuator when the lock switch is in an activated state and to allow control instructions to reach the actuator when the lock switch is in a deactivated state.
A method for installing an application in a trusted execution environment configuration for designating a group of trusted applications for exclusive interprocess communication, the method comprising: wrapping the application with a wrapping operation prior to installation of the application, the wrapping operation including instructions and logic that identify lifecycle events for the application and enque them for subsequent execution; subsequently identifying a lifecycle operation for an application, the lifecycle operation resulting from application execution in the trusted execution environment; determining, for the lifecycle operation, execution conditions for initiation of the lifecycle operation; inserting a delay into invocation of the lifecycle operation, the delay based on satisfaction of the execution conditions; defining an operation queue, the operation queue configured for storing entries corresponding to each of a plurality of lifecycle operations; and invoking the application for launch and following the application launch, placing any lifecycle operations which the application invokes in the operation queue to await proper execution conditions as defined by the trusted execution environment configuration according to the instructions and logic defined by the wrapping operation. wrapping the application with a wrapping operation prior to installation of the application, the wrapping operation including instructions and logic that identify lifecycle events for the application and enque them for subsequent execution; subsequently identifying a lifecycle operation for an application, the lifecycle operation resulting from application execution in the trusted execution environment; determining, for the lifecycle operation, execution conditions for initiation of the lifecycle operation; inserting a delay into invocation of the lifecycle operation, the delay based on satisfaction of the execution conditions; defining an operation queue, the operation queue configured for storing entries corresponding to each of a plurality of lifecycle operations; and invoking the application for launch and following the application launch, placing any lifecycle operations which the application invokes in the operation queue to await proper execution conditions as defined by the trusted execution environment configuration according to the instructions and logic defined by the wrapping operation.
A release device for detaching a medical implant from an insertion device, in which the implant can be released by way of a relative movement between a first and a second insertion element (52, 54), comprising a body having a proximal end, which faces a user in the usage state, and a distal end, which is remote from the user in the usage state, wherein a spindle comprising at least two speed regions (16, 18) is provided between the proximal and distal ends (12, 14), wherein the spindle is provided so as to generate a deliberate relative movement between the first and second insertion elements (52, 54) of the insertion device, characterised in that the respective speed region (16, 18) is associated with a respective operating element (26, 28) which cooperates with the respective speed region (16, 18) so as to effect the relative movement between the first and second insertion elements (52, 54) of the insertion device.
Medical appliance (101, 103), which is in particular a constituent part of a medical system, with a switching device (104, 204) for activating or deactivating an electrical device of the medical system, said electrical device being situated spatially at a distance from the medical appliance, the switching device having a first switching element (109, 209) and a second switching element (111, 211), which are configured to be movable relative to each other such that a first switch position and a second switch position can be realized, and the first switching element having a part of a Faraday cage, or a Faraday cage, and the second switching element having a transmission device (115, 215), characterized in that the first switching element and the second switching element are configured relative to each other in such a way that, in the first switch position, the electrical device of the medical system is activated or deactivated, and, in the second position, a deactivation or activation complementary to the first switch position is effected by a shielding of the transmission device by means of the part of the Faraday cage, or by means of the Faraday cage, and by a locking device via which a medical instrument is mechanically connectable to the medical appliance such that, after they have been connected, there is a form-fit and/or force-fit connection between the medical appliance and the medical instrument.
A bone implant based on a bioactive material and having a network of at least two channels capable of blood perfusion, said network comprising at least one input channel of the perfusion having an aperture formed in the surface of the implant and at least one output channel of the perfusion having an aperture formed in the surface of the implant, characterized in that each of said two channels goes from the input channel to the output channel.
A welding apparatus comprising: a repositionable support structure comprising: a mounting pivoting joint on a moveable support, the mounting pivoting joint configured to provide an overhead mounting point at any desired position within a work area; and, a collaborative robotic welding system attached to the repositionable support structure, wherein a collaborative robot is a robot configured to work closely alongside an operator, the collaborative robotic welding system comprising a supporting arm attached to the mounting pivoting joint, a welding arm comprising a torch holder shaft for mounting a welding torch, a plurality of rotary actuators for moving the supporting arm, the welding arm and the torch holder shaft, wherein the plurality of rotary actuators comprise a yaw rotary actuator rotatable about a yaw axis, a pitch rotary actuator rotatable about a pitch axis, and a roll rotary actuator rotatable about a roll axis, a safety encoder associated with the pitch rotary actuator and mounted on or near an axle of the welding arm, and a controller operably coupled to the plurality of rotary actuators and the safety encoder associated with the pitch rotary actuator and configured to control motion of the robotic system while limiting a force applied by the pitch rotary actuator by applying safety protocols based on feedback from the safety encoder associated with the pitch rotary actuator. a mounting pivoting joint on a moveable support, the mounting pivoting joint configured to provide an overhead mounting point at any desired position within a work area; and, a collaborative robotic welding system attached to the repositionable support structure, wherein a collaborative robot is a robot configured to work closely alongside an operator, the collaborative robotic welding system comprising a supporting arm attached to the mounting pivoting joint, a welding arm comprising a torch holder shaft for mounting a welding torch, a plurality of rotary actuators for moving the supporting arm, the welding arm and the torch holder shaft, wherein the plurality of rotary actuators comprise a yaw rotary actuator rotatable about a yaw axis, a pitch rotary actuator rotatable about a pitch axis, and a roll rotary actuator rotatable about a roll axis, a safety encoder associated with the pitch rotary actuator and mounted on or near an axle of the welding arm, and a controller operably coupled to the plurality of rotary actuators and the safety encoder associated with the pitch rotary actuator and configured to control motion of the robotic system while limiting a force applied by the pitch rotary actuator by applying safety protocols based on feedback from the safety encoder associated with the pitch rotary actuator.
A control device configured to control an air conditioning apparatus configured to perform at least one of cooling and heating of a target space, wherein the control device is configured to cause the air conditioning apparatus to execute a temperature adjustment operation of causing a first temperature to approach a first target temperature (Fs) at a target time point (tg) and causing a second temperature to approach a second target temperature (Ts) at the target time point (tg), the first temperature being a surface temperature of a partition portion including at least one of a floor, a wall, and a ceiling facing the target space, the second temperature being an indoor temperature of the target space, the control device is configured to cause the air conditioning apparatus to execute, in the temperature adjustment operation, a first operation of converging the first temperature to a third target temperature (Fn) and a second operation of converging the first temperature to the first target temperature (Fs) and converging the second temperature to the second target temperature (Ts), in an order of the first operation and the second operation. the control device is configured to cause the air conditioning apparatus to execute a temperature adjustment operation of causing a first temperature to approach a first target temperature (Fs) at a target time point (tg) and causing a second temperature to approach a second target temperature (Ts) at the target time point (tg), the first temperature being a surface temperature of a partition portion including at least one of a floor, a wall, and a ceiling facing the target space, the second temperature being an indoor temperature of the target space, the control device is configured to cause the air conditioning apparatus to execute, in the temperature adjustment operation, a first operation of converging the first temperature to a third target temperature (Fn) and a second operation of converging the first temperature to the first target temperature (Fs) and converging the second temperature to the second target temperature (Ts), in an order of the first operation and the second operation.
A controller-circuit for operating an automated vehicle, said controller-circuit comprising: an output configured to communicate with an externally visible or externally audible output-device that is configured to convey a message from a host-vehicle to a pedestrian external to the host-vehicle, the message indicating that the pedestrian is to proceed in front of the host-vehicle; an input configured to communicate with a perception-device that is configured to detect, using a camera, a microphone, or an input device, a reaction to the message by the pedestrian; a processor in communication with the output-device and the perception-device, said processor configured to operate the output-device in accordance with a first-interaction-mode to convey the message, determine whether the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than a delay-threshold, and, in response to determining that the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than the delay-threshold, operate the output-device in accordance with a second-interaction-mode to convey the message a second time, said second-interaction-mode characterized as different from the first-interaction-mode. an output configured to communicate with an externally visible or externally audible output-device that is configured to convey a message from a host-vehicle to a pedestrian external to the host-vehicle, the message indicating that the pedestrian is to proceed in front of the host-vehicle; an input configured to communicate with a perception-device that is configured to detect, using a camera, a microphone, or an input device, a reaction to the message by the pedestrian; a processor in communication with the output-device and the perception-device, said processor configured to operate the output-device in accordance with a first-interaction-mode to convey the message, determine whether the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than a delay-threshold, and, in response to determining that the reaction indicates that the pedestrian has not moved in front of the host-vehicle for more than the delay-threshold, operate the output-device in accordance with a second-interaction-mode to convey the message a second time, said second-interaction-mode characterized as different from the first-interaction-mode.
A process for optimizing the storage stability of a freeze dried bacteria-containing product obtained from a bacteria-containing concentrate, the process comprising i) preparing a sample of the frozen bacteria-containing concentrate and measuring the melting point, ii) calculating a freeze drying pressure in the range of 0.2 to 2.0 mBar which will provide a sublimation temperature which is at least 10°C above the melting point of the frozen bacteria-containing concentrate by reading a steam table by starting with the measured melting point and finding the value for the sublimation temperature, whereby the pressure is given, and iii) freeze drying the bacteria-containing product at a pressure which is at least the calculated freeze-drying pressure until a freeze dried bacteria-containing product having an a w of no more than 0.2 is obtained from the bacteria-containing concentrate. i) preparing a sample of the frozen bacteria-containing concentrate and measuring the melting point, ii) calculating a freeze drying pressure in the range of 0.2 to 2.0 mBar which will provide a sublimation temperature which is at least 10°C above the melting point of the frozen bacteria-containing concentrate by reading a steam table by starting with the measured melting point and finding the value for the sublimation temperature, whereby the pressure is given, and iii) freeze drying the bacteria-containing product at a pressure which is at least the calculated freeze-drying pressure until a freeze dried bacteria-containing product having an a w of no more than 0.2 is obtained from the bacteria-containing concentrate.
Bleed valve having a longitudinal axis, the bleed valve having an operative configuration wherein the longitudinal axis extends in a vertical direction, the bleed valve comprising a one-way valve (404, 405, 406, 407), an intermediate duct, a support and a cap which are in a vertical alignment from bottom to top of the bleed valve when the bleed valve is in its operative configuration, wherein the one-way valve (404, 405, 406, 407) is adapted to put, when it assumes an open configuration, a lower through hole in communication with the intermediate duct, wherein the support is coupled to the cap so as to form a cavity in which a ball is housed, the cap being provided with a main aperture communicating with outside of the bleed valve, said cavity being adapted to let the ball move between a lower limit position, that the ball assumes when subject only to gravity and the bleed valve is in its operative configuration and wherein the support supports the ball, and an upper limit position in which the ball occludes the main aperture, wherein the support is provided with a passage communicating with the intermediate duct, the cap being further provided with a secondary aperture communicating with outside of the bleed valve, the ball occluding the passage of the support when it is in the lower limit position, wherein the cap has a shape and size adapted to form a gap between the cap and the ball when the ball is in the upper limit position wherein the gap is adapted to put the secondary aperture in communication with said cavity, whereby the secondary aperture is always in communication with said cavity for any position assumed by the ball within said cavity.
A pharmaceutical composition for use in a method for suppressing the immunity of a subject to prevent or treat an autoimmune disease or an allergic disease by inducing proliferation or accumulation of transcription factor Foxp3-positive regulatory T cells, the composition comprising, as an active ingredient, bacteria belonging to the genus Clostridium, wherein the bacteria induce said proliferation or accumulation of transcription factor Foxp3-positive regulatory T cells.
A drive system comprising: a motor unit which has a data acquisition unit, a motor control which is connected to the motor unit via a motor cable, and at least one peripheral device, wherein the data acquisition unit is configured: to receive primary data from one or more components (116, 118) of the motor unit and secondary data from the at least one peripheral device, to fuse the primary data with the secondary data, to transmit the fused data to the motor control via the motor cable, to receive control and configuration data from the motor control via the motor cable, and to selectively transmit the control and configuration data to the one or more components (116, 118) of the motor unit and/or to the at least one peripheral device, wherein the drive system comprises at least two peripheral devices, characterized in that the data acquisition unit is configured to transmit secondary data between the at least two peripheral devices. a motor unit which has a data acquisition unit, a motor control which is connected to the motor unit via a motor cable, and at least one peripheral device, wherein the data acquisition unit is configured: to receive primary data from one or more components (116, 118) of the motor unit and secondary data from the at least one peripheral device, to fuse the primary data with the secondary data, to transmit the fused data to the motor control via the motor cable, to receive control and configuration data from the motor control via the motor cable, and to selectively transmit the control and configuration data to the one or more components (116, 118) of the motor unit and/or to the at least one peripheral device, to receive primary data from one or more components (116, 118) of the motor unit and secondary data from the at least one peripheral device, to fuse the primary data with the secondary data, to transmit the fused data to the motor control via the motor cable, to receive control and configuration data from the motor control via the motor cable, and to selectively transmit the control and configuration data to the one or more components (116, 118) of the motor unit and/or to the at least one peripheral device, wherein the drive system comprises at least two peripheral devices, characterized in that the data acquisition unit is configured to transmit secondary data between the at least two peripheral devices.
Mechanism for an office chair, comprising a base support which is able to be placed on a chair column, comprising a seat support which is arranged on the base support and which is able to be moved relative to the base support, comprising a backrest coupled to the seat support, wherein a pivoting of the backrest effects a movement of the seat support relative to the base support, comprising a track element which, on the one hand, is movably connected at a base support connecting point to the base support and, on the other hand, is movably connected at a seat support connecting point to the seat support, wherein a pivoting of the backrest effects an alteration to the position and/or location of the track element, comprising a spring element acting, on the one hand, on the track element and, on the other hand, on the seat support or on the backrest and/or a backrest support, which spring element is acted upon with a movement of the seat support relative to the base support, wherein the position of the point of action of the spring element on the track element is able to be altered.
Use of at least one oil-soluble compound B) which acts as a nucleator for paraffin crystallization and is selected from comb polymers which bear alkyl side chains having a length of at least 20 carbon atoms for improving the response behavior with respect to lowering pour point 3 and CFPP value and improving paraffin dispersancy of mineral oil cold flow improvers C) different than B) in middle distillates which comprise at least one ashless nitrogen-containing detergent additive A) which is an oil-soluble amphiphilic compound which comprises at least one alkyl or alkenyl radical which is bonded to a polar group, where the alkyl or alkenyl radical comprises 10 to 500 carbon atoms and the polar group 2 or more nitrogen atoms, wherein the ashless nitrogen-containing detergent additive A) comprises a polar component which is derived from polyamines of the formula (R 9) 2 N-[A-N(R 9)] q -(R 9) in which each R 9 is independently hydrogen, an alkyl or hydroxyalkyl radical having up to 24 carbon atoms, a polyoxyalkylene radical -(A-O) r - or polyiminoalkylene radical -[A-N(R 9)] s -(R 9), but at least one R 9 is hydrogen, q is an integer from 1 to 19, A is an alkylene radical having 1 to 6 carbon atoms, and r and s are each independently integers from 1 to 50, and wherein the cold flow improvers C) employed are oil-soluble polar nitrogen compounds which are reaction products of compounds of the formula NR 6 R 7 R 8 in which R 6, R 7 and R 8 may be the same or different, and at least one of these groups is C 8 -C 36 -alkyl, C 6 -C 36 -cycloalkyl, C 8 -C 36 -alkenyl, especially C 12 -C 24 -alkyl, C 12 -C 24 -alkenyl or cyclohexyl, and the remaining groups are hydrogen, C 1 -C 36 -alkyl, C 2 -C 36 -alkenyl, cyclohexyl or a group of the formula -(A-O) x -E or -(CH 2) n -NYZ in which A is an ethyl or propyl group, x is from 1 to 50, E = H, C 1 -C 30 -alkyl, C 5 -C 12 -cycloalkyl or C 6 -C 30 -aryl, and n = 2, 3 or 4, and Y and Z are each independently H, C 1 -C 30 -alkyl or -(A-O) x, with compounds which contain at least one acyl group.