mhurhangee/patent-ind-claim-en huggingface dataset:
Method for identifying and/or controlling a coupling procedure between a towing vehicle and a vehicle trailer that is embodied as a semi-trailer , wherein the towing vehicle comprises a coupling plate and the semi-trailer comprises a fifth wheel plate having a king pin that is fixed in the coupled state in a locking device of the coupling plate and where the towing vehicle comprises a pneumatic level controlling device by means of which it is possible to set different distances (H) between the at least one rear axle of the towing vehicle and the locking device of the coupling plate , characterized in that the contact between the coupling plate of the towing vehicle and the fifth wheel plate of the semi-trailer is determined by means of a change of the adjusting speed (v) with which the distance between the at least one rear axle of the towing vehicle and the locking device of the coupling plate is increased.
A container, comprising: a body comprising a sealable opening, a product facing body side , and a consumer facing body side; and an end closure comprising a product facing closure side and a consumer facing closure side, wherein the sealable opening is configured to receive the end closure , wherein the product facing closure side comprises a laminated film, and wherein the laminated film on the product facing closure side contacts the product facing body side , providing an end closure liner, wherein the laminated film is a polymer film, wherein the body is sealed with the end closure to provide a sealed container, characterized in that the sealed container has been annealed, wherein annealing the sealed container comprises raising a temperature of the polymer film for a duration sufficient to melt the polymer film into a surface texture of the sealed container. a body comprising a sealable opening, a product facing body side , and a consumer facing body side; and an end closure comprising a product facing closure side and a consumer facing closure side, wherein the sealable opening is configured to receive the end closure , wherein the product facing closure side comprises a laminated film, and wherein the laminated film on the product facing closure side contacts the product facing body side , providing an end closure liner, wherein the laminated film is a polymer film, wherein the body is sealed with the end closure to provide a sealed container, characterized in that the sealed container has been annealed, wherein annealing the sealed container comprises raising a temperature of the polymer film for a duration sufficient to melt the polymer film into a surface texture of the sealed container.
Positive displacement pump having an eccentric piston, comprising: - a tube having a first end secured to a transmission zone and a second end that is terminated by a cylinder secured to a delivery zone , the tube comprising an intake opening and the delivery zone comprising a delivery opening , - a drive shaft extending between the transmission zone and the tube with one end situated by the cylinder , - a piston arranged in the delivery zone and mounted in a sliding manner at the end of the shaft , being pressed against the cylinder by elastic means so as to prevent fluid displacement between the tube and the delivery zone when the pump is dry, wherein the cylinder is delimited by two circular walls with different diameters, the diameter of the piston being between these two diameters, characterized in that the elastic means are designed to press the piston against the cylinder when the pump is running under load, and in that the elastic means comprise at least one spring mounted at the end of the piston, the direction (D) of the return force of the spring forming a non-zero angle with a straight line (A) passing through the two points of contact between the piston and the cylinder when the pump is dry. - a tube having a first end secured to a transmission zone and a second end that is terminated by a cylinder secured to a delivery zone , the tube comprising an intake opening and the delivery zone comprising a delivery opening , - a drive shaft extending between the transmission zone and the tube with one end situated by the cylinder , - a piston arranged in the delivery zone and mounted in a sliding manner at the end of the shaft , being pressed against the cylinder by elastic means so as to prevent fluid displacement between the tube and the delivery zone when the pump is dry, wherein the cylinder is delimited by two circular walls with different diameters, the diameter of the piston being between these two diameters, characterized in that the elastic means are designed to press the piston against the cylinder when the pump is running under load, and in that the elastic means comprise at least one spring mounted at the end of the piston, the direction (D) of the return force of the spring forming a non-zero angle with a straight line (A) passing through the two points of contact between the piston and the cylinder when the pump is dry.
A medical device comprising: a tube through which fluid flows; a handle part coupled to a proximal end part of the tube ; an electrode tip coupled to a distal end part of the tube ; a fluid injection part configured to inject the fluid into the tube ; at least one opening formed in the tube ; and a guide member disposed in the tube , and having an inclined part to guide a direction of the fluid to be sprayed out through the opening , the guide member being formed as one body with the electrode tip , wherein the guide member comprises: a cylinder part ; and the inclined part tapered from the cylinder part , and wherein the cylinder part has an external diameter corresponding to an internal diameter of the distal end part of the tube. a tube through which fluid flows; a handle part coupled to a proximal end part of the tube ; an electrode tip coupled to a distal end part of the tube ; a fluid injection part configured to inject the fluid into the tube ; at least one opening formed in the tube ; and a guide member disposed in the tube , and having an inclined part to guide a direction of the fluid to be sprayed out through the opening , the guide member being formed as one body with the electrode tip , wherein the guide member comprises: a cylinder part ; and the inclined part tapered from the cylinder part , and wherein the cylinder part has an external diameter corresponding to an internal diameter of the distal end part of the tube. a cylinder part ; and the inclined part tapered from the cylinder part , and wherein the cylinder part has an external diameter corresponding to an internal diameter of the distal end part of the tube.
A latch assembly comprising: a coupling member with a first end and a second end, the first end couplable to a back portion of a seat; a latch body coupled to the second end of the coupling member such that the latch body is movable between a first position and a second position relative to the coupling member; and a spring coupled to the latch body for biasing the latch body into the first position; characterized in that : a back section of the latch body extends substantially perpendicular to a longitudinal axis of the coupling member and comprises a channel housing the second end of the coupling member and the spring , such that the latch body is slidable around the second end of the coupling member and the spring for said movement between the first position and the second position. a coupling member with a first end and a second end, the first end couplable to a back portion of a seat; a latch body coupled to the second end of the coupling member such that the latch body is movable between a first position and a second position relative to the coupling member; and a spring coupled to the latch body for biasing the latch body into the first position;
A radar signal processing device comprising: a signal transmitting and receiving unit for radiating a transmission signal of an electromagnetic wave or a sound wave into air, and receiving a reflected signal, the reflected signal being the transmission signal reflected from a target in the air; a signal cutting-out unit for cutting out the reflected signal received by the signal transmitting and receiving unit by a specific length while the cut-out reflected signals are overlapped by a set length in at least either one of a range direction and a cross-range direction; a power spectrum calculating unit for calculating a plurality of power spectra from the cut-out reflected signals cut out by the signal cutting-out unit ; a power spectrum reconstructing unit for performing power spectrum reconstruction by changing a ratio or contribution rate of power spectrum components in a set region, using the plurality of power spectra; and a spectral moment calculating unit for calculating a spectral moment from the power spectrum reconstructed by the power spectrum reconstructing unit . a signal transmitting and receiving unit for radiating a transmission signal of an electromagnetic wave or a sound wave into air, and receiving a reflected signal, the reflected signal being the transmission signal reflected from a target in the air; a signal cutting-out unit for cutting out the reflected signal received by the signal transmitting and receiving unit by a specific length while the cut-out reflected signals are overlapped by a set length in at least either one of a range direction and a cross-range direction; a power spectrum calculating unit for calculating a plurality of power spectra from the cut-out reflected signals cut out by the signal cutting-out unit ; a power spectrum reconstructing unit for performing power spectrum reconstruction by changing a ratio or contribution rate of power spectrum components in a set region, using the plurality of power spectra; and a spectral moment calculating unit for calculating a spectral moment from the power spectrum reconstructed by the power spectrum reconstructing unit .
A printer apparatus, comprising: a print head ; a platen roller ; and a frame , wherein printing is performed on recording paper situated between the print head and the platen roller , wherein a projection is formed at a side face of the print head , wherein a side face of the frame has a letter-L groove formed therein for receiving the projection , wherein the letter-L groove includes a first area constituting an entrance to the groove , a second area for positioning the projection and formed such as to extend in a direction intersecting with a direction in which the first area extends, a slanted part formed between the first area and the second area , and an upper slanted part formed on a side opposite from the slanted part between the first area and the second area and wherein the slanted part and the upper slanted part are edges of the letter-L groove and extend in a direction different from both a direction in which the projection is moveable in the first area and a direction in which the projection is moveable in the second area , the slanted part and the upper slanted part being bevelled corners of the letter-L groove between the first area and the second area ,the slanted part and upper slanted part being configured to prevent the print head from falling off from the letter-L groove. a print head ; a platen roller ; and a frame , wherein printing is performed on recording paper situated between the print head and the platen roller , wherein a projection is formed at a side face of the print head , wherein a side face of the frame has a letter-L groove formed therein for receiving the projection , wherein the letter-L groove includes a first area constituting an entrance to the groove , a second area for positioning the projection and formed such as to extend in a direction intersecting with a direction in which the first area extends, a slanted part formed between the first area and the second area , and an upper slanted part formed on a side opposite from the slanted part between the first area and the second area and wherein the slanted part and the upper slanted part are edges of the letter-L groove and extend in a direction different from both a direction in which the projection is moveable in the first area and a direction in which the projection is moveable in the second area , the slanted part and the upper slanted part being bevelled corners of the letter-L groove between the first area and the second area ,the slanted part and upper slanted part being configured to prevent the print head from falling off from the letter-L groove.
A method of controlling a drying apparatus comprising a drum adapted to accommodate laundry including bedding, a motor that rotates the drum, and a blower fan and a heater that supply hot air into the drum, the method comprising: determining whether a current course is a bedding washing course; if it is determined that the current course is the bedding washing course, performing a bedding washing operation to remove contamination from the bedding using water and detergent; performing a drying operation using rotation of the drum and the hot air to dry the bedding that is wet after the bedding washing operation is performed, the drying operation comprising rotating the drum at a predetermined rotation speed, performing a bedding-dusting operation to remove foreign substances from the bedding using rotation of the drum and the hot air, the bedding-dusting operation being performed after the bedding washing operation is performed, wherein the bedding-dusting operation is performed after the drying operation is performed, and wherein the bedding-dusting operation controls an operation of the motor so as to change the rotation speed of the drum to be different at different predetermined intervals of time. determining whether a current course is a bedding washing course; if it is determined that the current course is the bedding washing course, performing a bedding washing operation to remove contamination from the bedding using water and detergent; performing a drying operation using rotation of the drum and the hot air to dry the bedding that is wet after the bedding washing operation is performed, the drying operation comprising rotating the drum at a predetermined rotation speed, performing a bedding-dusting operation to remove foreign substances from the bedding using rotation of the drum and the hot air, the bedding-dusting operation being performed after the bedding washing operation is performed, wherein the bedding-dusting operation is performed after the drying operation is performed, and wherein the bedding-dusting operation controls an operation of the motor so as to change the rotation speed of the drum to be different at different predetermined intervals of time.
Pipetting system for an automatic analyser, the pipetting system comprising a pipetting needle which is arranged movably, with self-resetting, on a movable element of the pipetting system , wherein a movement-measuring system is assigned to a distance between pipetting needle and movable element , the pipetting system further comprising an evaluation system connected to the movement-measuring system , which evaluation system is designed to transmit a contact signal to a control unit, assigned to the movable element , upon a change in the signal of the movement-measuring system that is greater than a predefined minimum change, wherein the pipetting system is designed in such a way that the change in distance caused by inertia in an operational movement of the movable element brings about a change in the signal that is less than the predefined minimum change, wherein the movement-measuring system comprises a Hall sensor and a magnet , wherein either the Hall sensor is arranged on the movable element and the magnet on the pipetting needle , or the magnet is arranged on the movable element and the Hall sensor on the pipetting needle .
A method for fastening a plurality of nanoscale structures within a media, comprising acts of: inserting a plurality of nanostructures, the nanostructures being present on a first substrate and each having a defined height and orientation, into a curable fluid layer on a second substrate, the curable fluid layer having a thickness, the thickness of the fluid layer being less than or equal to the height of the plurality of nanostructures; and curing the fluid layer to form an anchoring layer, thereby fastening the nanostructure within the anchoring layer; whereby the plurality of nanostructures is fastened within the anchoring layer to a desired depth; and wherein the curable fluid layer is alterable by, and curing of the curable fluid layer is by, a treatment process including temperature variation, light curing or chemical altering. inserting a plurality of nanostructures, the nanostructures being present on a first substrate and each having a defined height and orientation, into a curable fluid layer on a second substrate, the curable fluid layer having a thickness, the thickness of the fluid layer being less than or equal to the height of the plurality of nanostructures; and curing the fluid layer to form an anchoring layer, thereby fastening the nanostructure within the anchoring layer; whereby the plurality of nanostructures is fastened within the anchoring layer to a desired depth; and wherein the curable fluid layer is alterable by, and curing of the curable fluid layer is by, a treatment process including temperature variation, light curing or chemical altering.
A method for wireless communication at a user equipment , UE, comprising: receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams , wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a subframe, each symbol associated with a different beam direction; identifying (215; 1610; 1710) a selected DL beam of the plurality of DL beams for communications from the base station to the UE ; selecting a frequency resource for a beam recovery or beam tracking message based on the selected DL beam of the plurality of DL beams , wherein the selection is based at least in part on the symbol of the subframe of the DL signal of the selected DL beam; and transmitting (225; 1615; 1715) the beam recovery or beam tracking message to the base station using the selected frequency resource based at least in part on the selected DL beam; and receiving one or more subsequent messages at the UE using the selected DL beam. receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams , wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a subframe, each symbol associated with a different beam direction; identifying (215; 1610; 1710) a selected DL beam of the plurality of DL beams for communications from the base station to the UE ; selecting a frequency resource for a beam recovery or beam tracking message based on the selected DL beam of the plurality of DL beams , wherein the selection is based at least in part on the symbol of the subframe of the DL signal of the selected DL beam; and transmitting (225; 1615; 1715) the beam recovery or beam tracking message to the base station using the selected frequency resource based at least in part on the selected DL beam; and receiving one or more subsequent messages at the UE using the selected DL beam.
A fluid ejection die comprising: a number of actuator sensors disposed on the fluid ejection die to sense a characteristic of a corresponding actuator, wherein: each actuator sensor is coupled to a respective actuator; and multiple coupled actuator sensors and actuators are grouped as primitives on the fluid ejection die ; an on-die actuator evaluation device per primitive to evaluate an actuator characteristic of any actuator within the primitive; and a number of on-die disable devices , wherein each disable device: is coupled to a respective actuator ; is to disable a corresponding actuator when the corresponding actuator is determined to be malfunctioning, and a number of on-die forwarding devices to selectively forward an activation signal originally directed towards a first actuator to a second actuator, when the first actuator is determined to be malfunctioning, wherein each on-die forwarding device is coupled to a respective actuator. a number of actuator sensors disposed on the fluid ejection die to sense a characteristic of a corresponding actuator, wherein: each actuator sensor is coupled to a respective actuator; and multiple coupled actuator sensors and actuators are grouped as primitives on the fluid ejection die ; each actuator sensor is coupled to a respective actuator; and multiple coupled actuator sensors and actuators are grouped as primitives on the fluid ejection die ; an on-die actuator evaluation device per primitive to evaluate an actuator characteristic of any actuator within the primitive; and a number of on-die disable devices , wherein each disable device: is coupled to a respective actuator ; is to disable a corresponding actuator when the corresponding actuator is determined to be malfunctioning, and a number of on-die forwarding devices to selectively forward an activation signal originally directed towards a first actuator to a second actuator, when the first actuator is determined to be malfunctioning, wherein each on-die forwarding device is coupled to a respective actuator. is coupled to a respective actuator ; is to disable a corresponding actuator when the corresponding actuator is determined to be malfunctioning, and
A method for controlling an electric power system comprising: a prime mover operable at least at a minimum rotational speed (RSmin) and at a maximum rotational speed (RSmax), a three phase (L1, L2, L3) AC synchronous generator comprising a stator with a stator winding , a connection arrangement for connecting the stator winding of the generator into a Star (Y) connection and into a Delta (Δ) connection, wherein the generator is electromagnetically dimensioned so that a first magnetic flux (Φ) is achieved at substantially the minimum rotational speed (RSmin) when the stator winding of the generator is connected into the Delta (Δ) connection, and so that the first magnetic flux (Φ) is also achieved at substantially the maximum rotational speed (RSmax) when the stator winding of the generator is connected into the Star (Y) connection, the method being characterised in that it comprises : operating the generator in the Delta (Δ) connection at the minimum rotational speed (RSmin) and operating the generator in the Star (Y) connection at the maximum rotational speed (RSmax), the ratio between the minimum rotational speed (RSmin) of the generator and the maximum rotational speed (RSmax) of the generator being substantially 0.60. a prime mover operable at least at a minimum rotational speed (RSmin) and at a maximum rotational speed (RSmax), a three phase (L1, L2, L3) AC synchronous generator comprising a stator with a stator winding , a connection arrangement for connecting the stator winding of the generator into a Star (Y) connection and into a Delta (Δ) connection, wherein the generator is electromagnetically dimensioned so that a first magnetic flux (Φ) is achieved at substantially the minimum rotational speed (RSmin) when the stator winding of the generator is connected into the Delta (Δ) connection, and so that the first magnetic flux (Φ) is also achieved at substantially the maximum rotational speed (RSmax) when the stator winding of the generator is connected into the Star (Y) connection, the method being characterised in that it comprises : operating the generator in the Delta (Δ) connection at the minimum rotational speed (RSmin) and operating the generator in the Star (Y) connection at the maximum rotational speed (RSmax), the ratio between the minimum rotational speed (RSmin) of the generator and the maximum rotational speed (RSmax) of the generator being substantially 0.60.