mhurhangee/ep-ind-claims huggingface dataset:
A camera arrangement for following an object marked by a tag device comprising a tag positioning unit configured to measure a horizontal plane position of the tag device and a tag altitude unit configured to measure an altitude of the tag device by applying another measurement principle than the tag positioning unit, the camera arrangement comprising: a camera having pan and tilt functionality, a camera positioning unit configured to measure a horizontal plane position related to the camera, a receiver configured to receive, from the tag device, a horizontal plane position of the tag device, and a control unit configured to determine a difference in horizontal plane positions between the tag device and the camera based on the horizontal plane position of the tag device and the horizontal plane position related to the camera, and to control a pan and a tilt setting of the camera based on the determined difference in horizontal plane positions such that the camera is oriented in the direction of the tag device, characterized by a camera altitude unit configured to measure an altitude related to the camera by applying another measurement principle than the camera positioning unit, the receiver being configured to receive an altitude of the tag device, and the control unit being configured to determine a difference in altitudes between the tag device and the camera based on the altitude of the tag device and the altitude related to the camera, and to further control the pan and a tilt setting of the camera based on the determined difference in altitudes. a camera having pan and tilt functionality, a camera positioning unit configured to measure a horizontal plane position related to the camera, a receiver configured to receive, from the tag device, a horizontal plane position of the tag device, and a control unit configured to determine a difference in horizontal plane positions between the tag device and the camera based on the horizontal plane position of the tag device and the horizontal plane position related to the camera, and to control a pan and a tilt setting of the camera based on the determined difference in horizontal plane positions such that the camera is oriented in the direction of the tag device, a camera altitude unit configured to measure an altitude related to the camera by applying another measurement principle than the camera positioning unit, the receiver being configured to receive an altitude of the tag device, and the control unit being configured to determine a difference in altitudes between the tag device and the camera based on the altitude of the tag device and the altitude related to the camera, and to further control the pan and a tilt setting of the camera based on the determined difference in altitudes.
A conductor assembly for a circuit breaker, comprising: an electrical terminal configured to input and output electrical power to the conductor assembly; a stationary contact electrically connected to the electrical terminal and fixed to the electrical terminal, a movable contact configured to rotatably engage the stationary contact, wherein the movable contact comprises a rotating arm and a first contact end at one or both ends of the rotating arm; wherein the stationary contact comprises a second contact end which is arranged on the electrical terminal to correspond to the first contact end of the movable contact; an arc chute arranged on the electrical terminal and adjacent to the stationary contact; and a magnetic member arranged to generate a magnetic field force when the movable contact is disconnected from the stationary contact so as to push an arc formed between the movable contact and the stationary contact towards the arc chute; characterized in that the magnetic member is fixed to the rotating arm, and the electrical terminal is provided with a dodging channel configured to receive the magnetic member when the first contact end contacts the second contact end. an electrical terminal configured to input and output electrical power to the conductor assembly; a stationary contact electrically connected to the electrical terminal and fixed to the electrical terminal, a movable contact configured to rotatably engage the stationary contact, wherein the movable contact comprises a rotating arm and a first contact end at one or both ends of the rotating arm; wherein the stationary contact comprises a second contact end which is arranged on the electrical terminal to correspond to the first contact end of the movable contact; an arc chute arranged on the electrical terminal and adjacent to the stationary contact; and a magnetic member arranged to generate a magnetic field force when the movable contact is disconnected from the stationary contact so as to push an arc formed between the movable contact and the stationary contact towards the arc chute; characterized in that the magnetic member is fixed to the rotating arm, and the electrical terminal is provided with a dodging channel configured to receive the magnetic member when the first contact end contacts the second contact end.
A rotational embossment apparatus for embossing flat materials such as sheets, panels, webs of paper, cardboard, plastics and composite materials, comprising a drive shaft and at least one embossment tool mounted thereon, wherein the embossment tool has a roller body, a clamping system and a tool sleeve (17, 18), wherein the tool sleeve (17, 18) is clamped onto the roller body by means of the clamping system, characterised in that the clamping system has at least one clamping ring disposed between the roller body and the tool sleeve (17, 18), and the at least one clamping ring is in engagement with an adjustment means for turning (j) the at least one clamping ring to adjust the angle of the tool sleeve (17, 18) around a rotational axis of the embossment tool.
Push-button switch assembly having means for identifying switching states, comprising: - a push-button switch having an actuating head for actuating the push-button switch and having a push-button guide, - an adapter device for fastening the push-button switch to a housing body, - wherein the adapter device is designed to fasten the push-button switch in a bore of the housing body, - wherein the adapter device is designed to compensate for a different diameter of the bore of the housing body and the push-button guide, - wherein the push-button guide comprises a plunger, which is arranged in a hollow body of the push-button guide and is moved in the hollow body of the push-button guide when the actuating head is actuated, - wherein, by actuating the actuating head, the push-button switch can be switched from a non-released state to a released state, - wherein the push-button switch is designed such that a region of the push-button guide visibly protrudes beneath the actuating head when the push-button switch is in the non-released state, - wherein the push-button switch is designed such that the region of the push-button guide is covered by the actuating head in a non-visible manner when the push-button switch is in the released state, - wherein the push-button guide comprises an integrally-colored material made of a plastics material in the region, the color of which material differs from a color of the actuating head and a color of the adapter device. - a push-button switch having an actuating head for actuating the push-button switch and having a push-button guide, - an adapter device for fastening the push-button switch to a housing body, - wherein the adapter device is designed to fasten the push-button switch in a bore of the housing body, - wherein the adapter device is designed to compensate for a different diameter of the bore of the housing body and the push-button guide, - wherein the push-button guide comprises a plunger, which is arranged in a hollow body of the push-button guide and is moved in the hollow body of the push-button guide when the actuating head is actuated, - wherein, by actuating the actuating head, the push-button switch can be switched from a non-released state to a released state, - wherein the push-button switch is designed such that a region of the push-button guide visibly protrudes beneath the actuating head when the push-button switch is in the non-released state, - wherein the push-button switch is designed such that the region of the push-button guide is covered by the actuating head in a non-visible manner when the push-button switch is in the released state, - wherein the push-button guide comprises an integrally-colored material made of a plastics material in the region, the color of which material differs from a color of the actuating head and a color of the adapter device.
A population of composite carnauba wax particles for use in a method of delivering a biologically active chemical agent to an arthropod pest of a bee comprising exposing a surface of the said bee to carnauba wax particles having a volume mean diameter in the range of 10 - 100 μm comprising at least one biologically active chemical agent, wherein the bee delivers the biologically active chemical agent to the arthropod pest, characterized in that the carnauba wax particles consist essentially of 89.5 - 99.4% by weight of carnauba wax; ≤ 10% by weight of biologically active chemical agent, namely a pesticide which is an essential oil, namely thymol; and 0.5% by weight of flow agent, namely a hydrophilic precipitated silica.
A monitoring device for monitoring an operation condition of a machine tool, comprising: an information acquiring section that acquires event information generated by operation of the machine tool and state information of the machine tool; a table that stores, in a corresponding manner, content indicated by the event information and a predetermined change of state of the machine tool corresponding to the content indicated by the event information; a judging section that, when, after generation of the event information, there has occurred a predetermined change of state of the machine tool corresponding to the content indicated by the event information in the table, judges whether or not the content indicated by the event information has been resolved, based on the event information and the state information; and a notifying section that, in the case where when there has occurred the predetermined change of state of the machine tool corresponding to the content indicated by the event information, it has been judged that the content indicated by the event information has not been resolved, re-notifies of the generated event information. an information acquiring section that acquires event information generated by operation of the machine tool and state information of the machine tool; a table that stores, in a corresponding manner, content indicated by the event information and a predetermined change of state of the machine tool corresponding to the content indicated by the event information; a judging section that, when, after generation of the event information, there has occurred a predetermined change of state of the machine tool corresponding to the content indicated by the event information in the table, judges whether or not the content indicated by the event information has been resolved, based on the event information and the state information; and a notifying section that, in the case where when there has occurred the predetermined change of state of the machine tool corresponding to the content indicated by the event information, it has been judged that the content indicated by the event information has not been resolved, re-notifies of the generated event information.
A method for producing components by means of selective irradiation of a powder bed, in which the component that is being produced is at the same time heated inductively, characterised in that - the excitation of induction is provided by way of a plurality of coils (6, 7), in which a plurality of alternating voltages with different frequencies are applied, - the arrangement of the coils (6, 7) for inductive heating and/or the selection of the frequencies of the alternating voltages are/is effected in such a way that the regions of effect (8, 9) of the inductive heating lie in the region of the component being generated, and - at least one of the coils (6, 7) for inductive heating is arranged in such a way that it is arranged at least in part above a plane in which the component in the powder bed is generated by the radiation. - the excitation of induction is provided by way of a plurality of coils (6, 7), in which a plurality of alternating voltages with different frequencies are applied, - the arrangement of the coils (6, 7) for inductive heating and/or the selection of the frequencies of the alternating voltages are/is effected in such a way that the regions of effect (8, 9) of the inductive heating lie in the region of the component being generated, and - at least one of the coils (6, 7) for inductive heating is arranged in such a way that it is arranged at least in part above a plane in which the component in the powder bed is generated by the radiation.
A method for preparing a protein by means of a microorganism comprising the method steps of (a) introducing into a microorganism a first expression construct which encodes the protein; (b) introducing into the microorganism a second expression construct which encodes an auxiliary protease which differs from the protein and which comprises an amino acid sequence which is at least 65% identical to the amino acid sequence indicated in SEQ ID NO. 1, wherein the auxiliary protease has proteolytic activity and replaces at least one chromosome-encoded protease in the microorganism; (c) expressing the protein and the auxiliary protease in the microorganism, where the protein is a protease, amylase, cellulase, hemicellulase, mannanase, tannase, xylanase, xanthanase, xyloglucanase, [beta]-glucosidase, pectinase, carrageenase, perhydrolase, oxidase, oxidoreductase or a lipase. (a) introducing into a microorganism a first expression construct which encodes the protein; (b) introducing into the microorganism a second expression construct which encodes an auxiliary protease which differs from the protein and which comprises an amino acid sequence which is at least 65% identical to the amino acid sequence indicated in SEQ ID NO. 1, wherein the auxiliary protease has proteolytic activity and replaces at least one chromosome-encoded protease in the microorganism; (c) expressing the protein and the auxiliary protease in the microorganism, where the protein is a protease, amylase, cellulase, hemicellulase, mannanase, tannase, xylanase, xanthanase, xyloglucanase, [beta]-glucosidase, pectinase, carrageenase, perhydrolase, oxidase, oxidoreductase or a lipase.
Swimming pool cleaning robot comprising: - a body, - at least one hydraulic liquid circulation circuit between at least one liquid inlet and at least one liquid outlet, said hydraulic circuit comprising at least one means of separating debris in suspension in the liquid, - pumping means for maintaining the flow of liquid in said hydraulic circuit, - means of driving and guiding said robot on a surface, - means of controlling operating parameters of the means of driving and guiding said cleaning robot, the control means comprising a pressure sensor for determining the immersion depth of the cleaning robot in a swimming pool, starting from the measurement of the ambient pressure around the robot, characterised in that the control means also comprise means of automatically controlling the pressure recorded by the pressure sensor to a set value. - a body, - at least one hydraulic liquid circulation circuit between at least one liquid inlet and at least one liquid outlet, said hydraulic circuit comprising at least one means of separating debris in suspension in the liquid, - pumping means for maintaining the flow of liquid in said hydraulic circuit, - means of driving and guiding said robot on a surface, - means of controlling operating parameters of the means of driving and guiding said cleaning robot, the control means comprising a pressure sensor for determining the immersion depth of the cleaning robot in a swimming pool, starting from the measurement of the ambient pressure around the robot,
A train data transmission system for a train including a plurality of cars, wherein a front car of the train comprises: a front car control device (11_1) that is a central control device (11_1) to send and receive data to and from a control device of a train information management device (11_2 to 11_N) installed in a following car; and a display device to request data of the plurality of cars from the front car control device (11_1) using a transmission data format, and receive the data from the front car control device (11_1) including the data of the following cars written to the transmission data format in accordance with the transmission data format, characterized in that an address is assigned only to data of the front car in the transmission data format, and the display device allocates the received data of the following cars in sequence. a front car control device (11_1) that is a central control device (11_1) to send and receive data to and from a control device of a train information management device (11_2 to 11_N) installed in a following car; and a display device to request data of the plurality of cars from the front car control device (11_1) using a transmission data format, and receive the data from the front car control device (11_1) including the data of the following cars written to the transmission data format in accordance with the transmission data format, characterized in that an address is assigned only to data of the front car in the transmission data format, and the display device allocates the received data of the following cars in sequence.
A method of operating a first communication device in a communications network, the method comprising: receiving control information from a second communication device over a control channel, wherein receiving the control information comprises receiving a reference signal with the control channel; receiving a data channel transmission from the second communication device using the control information; determining a feedback message to transmit to the second communication device based on an attempt to decode the data channel transmission; determining a parameter of the control channel by determining a parameter of the reference signal comprising one of: a cyclic shift, a base sequence, a sequence generator initialization value, a code associated with the reference signal, the parameter of the reference signal having been randomly selected by the second communication device; selecting a resource to use for transmitting the feedback message to the second communication device based on the parameter of the control channel; and transmitting the feedback message to the second communication device using the resource. receiving control information from a second communication device over a control channel, wherein receiving the control information comprises receiving a reference signal with the control channel; receiving a data channel transmission from the second communication device using the control information; determining a feedback message to transmit to the second communication device based on an attempt to decode the data channel transmission; determining a parameter of the control channel by determining a parameter of the reference signal comprising one of: a cyclic shift, a base sequence, a sequence generator initialization value, a code associated with the reference signal, the parameter of the reference signal having been randomly selected by the second communication device; selecting a resource to use for transmitting the feedback message to the second communication device based on the parameter of the control channel; and transmitting the feedback message to the second communication device using the resource. a cyclic shift, a base sequence, a sequence generator initialization value, a code associated with the reference signal, the parameter of the reference signal having been randomly selected by the second communication device; selecting a resource to use for transmitting the feedback message to the second communication device based on the parameter of the control channel; and transmitting the feedback message to the second communication device using the resource.
Pump device with a pulsator as drive element for a main pump head which lies in a supply line and the working space of which is provided with a check valve on the suction side and a check valve on the pressure side, wherein the working space of the pulsator is connected to the working space of the main pump head via a pendulum line filled with supply medium, in such a way that the pulsator draws supply medium oscillatingly from the conveying line into the working space of the main pump head or presses it out of the working space, wherein a venting valve is provided for venting the working space of the pulsator, characterised in that the venting valve is a time-controlled valve and/or a pressure-controlled double-seat valve and in that a device is provided for introducing a liquid into the working space of the pulsator and/or the pendulum line.
A method implemented in a master node of controlling a transmission timing for a plurality of slave nodes in a communication network, the method comprising: determining a skew timing ( T skew) from a difference between a second delay ( T second) and a first delay ( T first), wherein the first delay ( T first) represents a transmission time between the master node and a first slave node, and wherein the second delay (T second) represents a transmission time between the master node and a second slave node; determining an initial timing error ( x init) from a difference between a reference skew timing T skew ref and the skew timing ( T skew); applying a deadzone mapping to the initial timing error ( x init) to determine a final timing error ( x final), wherein the deadzone mapping is configured to adjust the initial timing error ( x init) responsive to a comparison between the initial timing error ( x init) and a timing error range, said timing error range including an upper limit ( u max) and a lower limit ( u min) used to bound the timing error range; and controlling the first delay ( T first) and the second delay ( T second) using the final timing error ( x final) to keep the skew timing ( T skew) within the timing error range. determining a skew timing ( T skew) from a difference between a second delay ( T second) and a first delay ( T first), wherein the first delay ( T first) represents a transmission time between the master node and a first slave node, and wherein the second delay (T second) represents a transmission time between the master node and a second slave node; determining an initial timing error ( x init) from a difference between a reference skew timing T skew ref and the skew timing ( T skew); applying a deadzone mapping to the initial timing error ( x init) to determine a final timing error ( x final), wherein the deadzone mapping is configured to adjust the initial timing error ( x init) responsive to a comparison between the initial timing error ( x init) and a timing error range, said timing error range including an upper limit ( u max) and a lower limit ( u min) used to bound the timing error range; and controlling the first delay ( T first) and the second delay ( T second) using the final timing error ( x final) to keep the skew timing ( T skew) within the timing error range.