mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical system, comprising: a surgical evacuation system , comprising: a pump ; a motor operably coupled to said pump; a flow path fluidically coupled to said pump; and a sensor positioned along said flow path, wherein said sensor is configured to monitor a parameter of a fluid flowing along said flow path; a generator operably configured to supply power, such as an energy waveform, to an electrosurgical instrument ; and a control circuit configured to: receive the parameter from said sensor; and either adjust the power, such as an energy waveform, supplied by said generator in response to the parameter received from said sensor; or selectively adjust the power, such as an energy waveform, supplied by said generator based on the parameter received from said sensor; a surgical hub comprising a situational awareness module, wherein said control circuit is configured to determine an energy modality for said generator based on input from said situational awareness module, and characterised in that the selected energy modality corresponds to a collagen-to-elastin ratio of tissue in said flow path. a surgical evacuation system , comprising: a pump ; a motor operably coupled to said pump; a flow path fluidically coupled to said pump; and a sensor positioned along said flow path, wherein said sensor is configured to monitor a parameter of a fluid flowing along said flow path; a pump ; a motor operably coupled to said pump; a flow path fluidically coupled to said pump; and a sensor positioned along said flow path, wherein said sensor is configured to monitor a parameter of a fluid flowing along said flow path; a generator operably configured to supply power, such as an energy waveform, to an electrosurgical instrument ; and a control circuit configured to: receive the parameter from said sensor; and either adjust the power, such as an energy waveform, supplied by said generator in response to the parameter received from said sensor; or selectively adjust the power, such as an energy waveform, supplied by said generator based on the parameter received from said sensor; receive the parameter from said sensor; and either adjust the power, such as an energy waveform, supplied by said generator in response to the parameter received from said sensor; or selectively adjust the power, such as an energy waveform, supplied by said generator based on the parameter received from said sensor; a surgical hub comprising a situational awareness module, wherein said control circuit is configured to determine an energy modality for said generator based on input from said situational awareness module, and characterised in that the selected energy modality corresponds to a collagen-to-elastin ratio of tissue in said flow path.
A control system for a work vehicle that performs auto-steer driving, the control system comprising: a storage device to store a target path for the work vehicle ; and a controller configured or programmed to control steering of the work vehicle so that the work vehicle travels along the target path based on a position of the work vehicle identified by a position identifier and the target path stored in the storage device ; wherein the target path includes a plurality of parallel main paths and one or more turning paths interconnecting the plurality of main paths; and, the controller is configured or programmed to, when the work vehicle is turning along one of the turning paths via automatic steering, if the position of the work vehicle becomes deviated from the turning path by more than a reference distance, cause an alarm generator to output an alarm, characterized in that : the controller is configured or programmed to, when a certain amount of time has passed after causing the alarm generator to output the alarm, if the position of the work vehicle is deviated from the turning path by more than the reference distance, cause the alarm generator to output another alarm having a higher alarming effect than that of the alarm. a storage device to store a target path for the work vehicle ; and a controller configured or programmed to control steering of the work vehicle so that the work vehicle travels along the target path based on a position of the work vehicle identified by a position identifier and the target path stored in the storage device ; wherein the target path includes a plurality of parallel main paths and one or more turning paths interconnecting the plurality of main paths; and, the controller is configured or programmed to, when the work vehicle is turning along one of the turning paths via automatic steering, if the position of the work vehicle becomes deviated from the turning path by more than a reference distance, cause an alarm generator to output an alarm, characterized in that : the controller is configured or programmed to, when a certain amount of time has passed after causing the alarm generator to output the alarm, if the position of the work vehicle is deviated from the turning path by more than the reference distance, cause the alarm generator to output another alarm having a higher alarming effect than that of the alarm.
Method for controlling an electric machine (EM) during a synchronisation procedure of a first and a second shaft (11, 111; 12, 151, 152), whereby said first shaft is in drive connection with an output shaft of said electric machine (EM) and said first and said second shaft (11, 111; 12, 151, 152) is connectable over a synchronisation mechanism , said method comprises the steps of; - controlling output shaft to a speed (na) essentially corresponding to a target speed (nt) of said second shaft by using speed control; - continuously controlling an electrical torque of said electrical machine (EM), such that an output torque (Tout) of said electric machine (EM) becomes essentially equal to zero during the synchronisation procedure of the synchronisation mechanism ; and - controlling said synchronisation mechanism to synchronise the speed of first and second shaft (11, 111; 12, 151, 152). - controlling output shaft to a speed (na) essentially corresponding to a target speed (nt) of said second shaft by using speed control; - continuously controlling an electrical torque of said electrical machine (EM), such that an output torque (Tout) of said electric machine (EM) becomes essentially equal to zero during the synchronisation procedure of the synchronisation mechanism ; and - controlling said synchronisation mechanism to synchronise the speed of first and second shaft (11, 111; 12, 151, 152).
A method for producing a rotor unit, wherein the rotor unit is realized with a rotor and a plain bearing bush for the rotatable arrangement of the rotor on a spindle, wherein the plain bearing bush is placed into a mold , wherein the rotor is produced by attaching a polymeric material to the plain bearing bush in the mold by means of a transfer molding process or an injection molding process, and wherein the plain bearing bush is composed of a first bush section and a second bush section that is connected to the first bush section, characterized in that the bush sections are placed into the mold, wherein the polymeric material is attached to the bush sections, and wherein a connecting fit , which allows a relative motion between the bush sections in the axial direction, is produced between the first bush section and the second bush section.
A method for isolating microRNA (miRNA) from a biological fluid, the method comprising (a) contacting the biological fluid with a surface active agent and an anti-miRNA-binding protein reagent, wherein the surface active agent dissociates biological fluid components and the anti-miRNA-binding protein reagent interacts with a miRNA-binding protein associated with miRNA to form immunoprecipitated miRNA complexes; and (b) contacting, at room temperature, the immunoprecipitated miRNA complexes with a protease to release miRNA from the immunoprecipitated miRNA complexes without purification.
A printing apparatus in which a printing unit comprising an ejection head provided with ejection ports , through which liquid is ejected, is moved in a main scanning direction (X) along the surface of a print medium (S) so as to perform printing, the printing unit comprising: a first opening formed at a first surface in the main scanning direction, the first surface being a bottom surface of the printing unit, flush with an ejection port surface having the ejection ports formed thereat, and facing the print medium; characterized in that the printing unit further comprises: a second opening formed at a second surface in the main scanning direction, the second surface being a further bottom surface of the printing unit different from the first surface; and a first communication path that allows the first opening and the second opening to communicate with each other, wherein the first opening and the second opening are formed in different pressure regions, in which pressures different from each other are produced in a case where the printing unit is moved in the main scanning direction, so that air around the ejection head is sucked through the first opening or air is injected between the ejection port surface and the print medium. a first opening formed at a first surface in the main scanning direction, the first surface being a bottom surface of the printing unit, flush with an ejection port surface having the ejection ports formed thereat, and facing the print medium; characterized in that the printing unit further comprises: a second opening formed at a second surface in the main scanning direction, the second surface being a further bottom surface of the printing unit different from the first surface; and a first communication path that allows the first opening and the second opening to communicate with each other, wherein the first opening and the second opening are formed in different pressure regions, in which pressures different from each other are produced in a case where the printing unit is moved in the main scanning direction, so that air around the ejection head is sucked through the first opening or air is injected between the ejection port surface and the print medium. a second opening formed at a second surface in the main scanning direction, the second surface being a further bottom surface of the printing unit different from the first surface; and a first communication path that allows the first opening and the second opening to communicate with each other, wherein the first opening and the second opening are formed in different pressure regions, in which pressures different from each other are produced in a case where the printing unit is moved in the main scanning direction, so that air around the ejection head is sucked through the first opening or air is injected between the ejection port surface and the print medium.
A method of providing an ultrasound elastography image (400, 600-1), the method comprising: inducing (S310) a shear wave by transmitting a first ultrasound signal into an object where the first ultrasound signal is an ultrasound push beam; transmitting (S320) a second ultrasound signal tracing the shear wave into the object, and receiving (S330) a response signal to the second ultrasound signal from the object ; acquiring (S340) an elastography image (400, 600-1) of the object , based on the response signal; providing (S350) the elastography image (400, 600-1) of the object ; providing (S350) transmission position information of the first ultrasound signal , selecting (S1220) a region of interest (ROI) from the elastography image (400, 600-1), characterized by comprising providing (S1230) visual guide information indicating a direction of a movement of a probe which guides the movement of the probe to a second transmission position for a third ultrasound signal to induce a shear wave, based on information about the ROI, so that, when the probe is moved to the second transmission position, the ROI is located between a transmission position for the first ultrasound signal and the second transmission position for the third ultrasound signal, transmitting the third ultrasound signal to induce a shear wave, transmitting a fourth ultrasound signal tracing the shear wave into the object, and receiving a response signal to the fourth ultrasound signal from the object , and updating the elastography image based on the response signal to the fourth ultrasound signal from the object . inducing (S310) a shear wave by transmitting a first ultrasound signal into an object where the first ultrasound signal is an ultrasound push beam; transmitting (S320) a second ultrasound signal tracing the shear wave into the object, and receiving (S330) a response signal to the second ultrasound signal from the object ; acquiring (S340) an elastography image (400, 600-1) of the object , based on the response signal; providing (S350) the elastography image (400, 600-1) of the object ; providing (S350) transmission position information of the first ultrasound signal , selecting (S1220) a region of interest (ROI) from the elastography image (400, 600-1), characterized by comprising providing (S1230) visual guide information indicating a direction of a movement of a probe which guides the movement of the probe to a second transmission position for a third ultrasound signal to induce a shear wave, based on information about the ROI, so that, when the probe is moved to the second transmission position, the ROI is located between a transmission position for the first ultrasound signal and the second transmission position for the third ultrasound signal, transmitting the third ultrasound signal to induce a shear wave, transmitting a fourth ultrasound signal tracing the shear wave into the object, and receiving a response signal to the fourth ultrasound signal from the object , and updating the elastography image based on the response signal to the fourth ultrasound signal from the object .
A method of operating a communications device , the method comprising: transmitting a signal including a first value at a predetermined location in said signal, wherein said signal is a peer discovery signal that includes a header and one bit in the header at the predetermined location is used to indicate that the communications device is operating as a location anchor point; transmitting information indicating the known location of the communications device ; measuring signals received from other devices and reporting the signal measurement information and information indicating the devices from which the measured signals were received to a location determination server; and deciding whether or not to continue operating as a location anchor point based on one or more of: time remaining in a time interval in which the communications device has agreed to operate as a location anchor point, a number of detected peer devices in its vicinity, a level of peer to peer communications in its vicinity, a number of other devices which can be detected which also are currently acting as location anchor points, a request to continue operating as a location anchor point, and a command to continue operating as a location anchor point. transmitting a signal including a first value at a predetermined location in said signal, wherein said signal is a peer discovery signal that includes a header and one bit in the header at the predetermined location is used to indicate that the communications device is operating as a location anchor point; transmitting information indicating the known location of the communications device ; measuring signals received from other devices and reporting the signal measurement information and information indicating the devices from which the measured signals were received to a location determination server; and deciding whether or not to continue operating as a location anchor point based on one or more of: time remaining in a time interval in which the communications device has agreed to operate as a location anchor point, a number of detected peer devices in its vicinity, a level of peer to peer communications in its vicinity, a number of other devices which can be detected which also are currently acting as location anchor points, a request to continue operating as a location anchor point, and a command to continue operating as a location anchor point. time remaining in a time interval in which the communications device has agreed to operate as a location anchor point, a number of detected peer devices in its vicinity, a level of peer to peer communications in its vicinity, a number of other devices which can be detected which also are currently acting as location anchor points, a request to continue operating as a location anchor point, and a command to continue operating as a location anchor point.
A method of manufacturing an implantable tissue repair device for the repair, replacement or augmentation of a biological tissue, the method comprising: providing a device comprising a biocompatible solvated structural material comprising one or more anchoring elements (6, 6′, 6ʺ); and the method characterised by comprising the steps of compressing and drying at least the or each anchoring element (6, 6′, 6ʺ) to reduce one or more dimensions of at least part of the device . providing a device comprising a biocompatible solvated structural material comprising one or more anchoring elements (6, 6′, 6ʺ); and the method characterised by comprising the steps of compressing and drying at least the or each anchoring element (6, 6′, 6ʺ) to reduce one or more dimensions of at least part of the device .
A data acquisition method, comprising: receiving (S21) a model file configured to define a data acquisition object, an acquisition parameter, and alarm description information; and sending (S22) the model file to an acquisition apparatus; obtaining (S31) an access parameter of a to-be-added acquisition object; sending (S32) the access parameter to a generic service module comprising a resource module, such that the generic service module persists the access parameter; and sending (S33) the access parameter to the acquisition apparatus, such that the acquisition apparatus acquires data from the to-be-added acquisition object according to the access parameter and the model file. receiving (S21) a model file configured to define a data acquisition object, an acquisition parameter, and alarm description information; and sending (S22) the model file to an acquisition apparatus; obtaining (S31) an access parameter of a to-be-added acquisition object; sending (S32) the access parameter to a generic service module comprising a resource module, such that the generic service module persists the access parameter; and sending (S33) the access parameter to the acquisition apparatus, such that the acquisition apparatus acquires data from the to-be-added acquisition object according to the access parameter and the model file.
Sliding door arrangement comprising a frame and a leaf of a door, window or the like that is displaceable relative to the frame along a displacement plane (yz), and comprising a running mechanism having at least one carriage supporting the leaf , wherein the leaf can be moved along a projection axis (x) relative to the frame between a projection position and a pressing position, and wherein the leaf is released for displacement along the displacement plane (yz) in the projection position, wherein the running mechanism has at least one guide unit guiding the leaf , wherein the guide unit has at least one bearing element for coupling to the leaf and, as a guide arrangement , a slider arrangement or a roller arrangement for guiding the leaf on the frame , wherein the guide arrangement is guided in a guide rail on the frame , characterized in that - the carriage has a pressure adjustment device with an adjusting element , by means of which the position of a bearing element of the carriage along the projection axis (x) and relative to a roller arrangement of the carriage that is stationary with respect to the projection axis (x) can be adjusted, wherein the leaf is mounted so as to be displaceable along the projection axis (x) relative to the bearing element of the carriage for the movement of the leaf between the projection position and the pressing position, and/or - in that the guide unit has a pressure adjustment device with an adjusting element , by means of which the position of the bearing element of the guide unit along the projection axis (x) and relative to the guide arrangement of the guide unit that is stationary with respect to the projection axis (x) can be adjusted, wherein the leaf is mounted so as to be displaceable along the projection axis (x) relative to the bearing element of the guide unit for the movement of the leaf between the projection position and the pressing position. - the carriage has a pressure adjustment device with an adjusting element , by means of which the position of a bearing element of the carriage along the projection axis (x) and relative to a roller arrangement of the carriage that is stationary with respect to the projection axis (x) can be adjusted, wherein the leaf is mounted so as to be displaceable along the projection axis (x) relative to the bearing element of the carriage for the movement of the leaf between the projection position and the pressing position, and/or - in that the guide unit has a pressure adjustment device with an adjusting element , by means of which the position of the bearing element of the guide unit along the projection axis (x) and relative to the guide arrangement of the guide unit that is stationary with respect to the projection axis (x) can be adjusted, wherein the leaf is mounted so as to be displaceable along the projection axis (x) relative to the bearing element of the guide unit for the movement of the leaf between the projection position and the pressing position.
A system (A) configured for feeding livestock, comprising at least one feed preparation room accommodating a plurality of storage vessels for feed and/or additives, at least one livestock stable including feed-dispensing zones and connected at least to the feed preparation room via robot travel paths , and at least one electrically operable self-propelled robot (R) including at least one mixing member and a metering device in a container arranged on a chassis with drive and/or steering wheels , at least one electric drive at least for the mixing member which can be speed-controlled by means of a frequency converter , and at least one battery (B) which can be charged via a battery charging device , the electric drive being connectable to a power supply at least in the feed preparation room via at least one current collector , characterized in that, at least in the feed preparation room , there are provided as power supply means a conductor rail section (S1) routed past the storage vessels and at least one docking device defining a robot entry point and a robot exit point for the conductor rail section (S1), wherein the robot (R) docks at the docking device , and in that the conductor rail section (S1) extends in the feed preparation room along the storage vessels so that in the entire area of the feed preparation room without the use of batteries the container can be efficiently filled and feed can be mixed.