mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a crane of a working machine (10; 44) by using boom tip control, the working machine further including a control system, and controls (52, 54), and the crane including at least two booms (24, 26, 28) connected to the working machine (10; 44) and to each other in an articulated manner, and a head, the method comprising - moving the at least two booms in relation to the working machine (10; 44) and each other by means of actuators (32, 34, 36) controlled by the control system of the working machine (10; 44), and - controlling the direction and speed of motion of the head of the crane by a driver applying the controls (50, 52) in the working machine (10; 44), the direction and speed of motion of the head being achieved by applying speeds of the at least two booms (24, 26, 28) of the crane, whereby the speeds of the at least two booms (24, 26, 28) of the crane are controlled automatically in the following manner in the respective situation: - limiting the speed of motion of a boom (24, 26, 28) of the crane when the boom comes closer than a predetermined distance to the extreme end of the range of motion of the boom and characterised by increasing the speed of motion of at least one other boom (24, 26, 28) when the position of at least one boom (24, 26, 28) comes closer than a predetermined distance to the extreme end of the range of motion of the at least one boom. - moving the at least two booms in relation to the working machine (10; 44) and each other by means of actuators (32, 34, 36) controlled by the control system of the working machine (10; 44), and - controlling the direction and speed of motion of the head of the crane by a driver applying the controls (50, 52) in the working machine (10; 44), the direction and speed of motion of the head being achieved by applying speeds of the at least two booms (24, 26, 28) of the crane, whereby the speeds of the at least two booms (24, 26, 28) of the crane are controlled automatically in the following manner in the respective situation: - limiting the speed of motion of a boom (24, 26, 28) of the crane when the boom comes closer than a predetermined distance to the extreme end of the range of motion of the boom and characterised by increasing the speed of motion of at least one other boom (24, 26, 28) when the position of at least one boom (24, 26, 28) comes closer than a predetermined distance to the extreme end of the range of motion of the at least one boom. - limiting the speed of motion of a boom (24, 26, 28) of the crane when the boom comes closer than a predetermined distance to the extreme end of the range of motion of the boom and characterised by increasing the speed of motion of at least one other boom (24, 26, 28) when the position of at least one boom (24, 26, 28) comes closer than a predetermined distance to the extreme end of the range of motion of the at least one boom.
A composite sheet comprising: a non-stretchable nonwoven fabric; and a stretchable nonwoven fabric including a thermoplastic fiber that is at least partially extended and an elastomer fiber that is different from the thermoplastic fiber, in which a plurality of strip-shaped non-dense regions and a plurality of strip-shaped dense regions are formed on both faces along a first direction and alternately arranged to be continuous in a second direction that is orthogonal to the first direction, and the strip-shaped dense regions on a first face and the strip-shaped dense regions on a second face are alternately arranged in the second direction; and an adhesive portion that joins the non-stretchable nonwoven fabric and the stretchable nonwoven fabric is comprised, wherein the composite sheet is obtained by adhering the stretchable nonwoven fabric in an extended state to the non-stretchable nonwoven fabric, and a maximum breaking strength in the first direction and the second direction is at least 20 N/50 mm. a non-stretchable nonwoven fabric; and a stretchable nonwoven fabric including a thermoplastic fiber that is at least partially extended and an elastomer fiber that is different from the thermoplastic fiber, in which a plurality of strip-shaped non-dense regions and a plurality of strip-shaped dense regions are formed on both faces along a first direction and alternately arranged to be continuous in a second direction that is orthogonal to the first direction, and the strip-shaped dense regions on a first face and the strip-shaped dense regions on a second face are alternately arranged in the second direction; and an adhesive portion that joins the non-stretchable nonwoven fabric and the stretchable nonwoven fabric is comprised, wherein the composite sheet is obtained by adhering the stretchable nonwoven fabric in an extended state to the non-stretchable nonwoven fabric, and a maximum breaking strength in the first direction and the second direction is at least 20 N/50 mm.
A computing device comprising: a display; a first temperature sensor configured to detect a first temperature of the display (104, 304); a second temperature sensor configured to detect a second temperature of the display (104, 304, 504); a temperature aggregator configured to aggregate the detected temperatures, determine the lowest detected temperature between the detected temperatures of the display, and output the lowest detected temperature to a dynamic voltage display driver; the dynamic voltage display driver, configured to vary a driving voltage applied to the display based on the determined lowest detected temperature of the display (104, 304, 504), such to achieve a desired colour uniformity across the display; wherein the computing device comprises: a dynamic vapor chamber including one or more valves (346, 348, 350, 352) between heat-generating components (338, 340) of the computing device and the display (104, 304), and a vapor chamber controller to selectively actuate, based on the detected temperatures, the one or more valves (346, 348, 350, 352) to affect the detected temperatures of the display (104, 304, 504) such to achieve a desired display temperature uniformity across the display. a display; a first temperature sensor configured to detect a first temperature of the display (104, 304); a second temperature sensor configured to detect a second temperature of the display (104, 304, 504); a temperature aggregator configured to aggregate the detected temperatures, determine the lowest detected temperature between the detected temperatures of the display, and output the lowest detected temperature to a dynamic voltage display driver; the dynamic voltage display driver, configured to vary a driving voltage applied to the display based on the determined lowest detected temperature of the display (104, 304, 504), such to achieve a desired colour uniformity across the display; wherein the computing device comprises: a dynamic vapor chamber including one or more valves (346, 348, 350, 352) between heat-generating components (338, 340) of the computing device and the display (104, 304), and a vapor chamber controller to selectively actuate, based on the detected temperatures, the one or more valves (346, 348, 350, 352) to affect the detected temperatures of the display (104, 304, 504) such to achieve a desired display temperature uniformity across the display. a dynamic vapor chamber including one or more valves (346, 348, 350, 352) between heat-generating components (338, 340) of the computing device and the display (104, 304), and a vapor chamber controller to selectively actuate, based on the detected temperatures, the one or more valves (346, 348, 350, 352) to affect the detected temperatures of the display (104, 304, 504) such to achieve a desired display temperature uniformity across the display.
A thermoplastic toner powder composition comprising: a mixture of, a. an amorphous thermoplastic polymer consisting of a carboxyl or hydroxyl functional polyester wherein the carboxyl or hydroxyl functional polyester is derived from a dianhydrohexitol, a first diacid moiety, and a second diacid moiety, optionally a monoacid may also be included; wherein the polymer is derived from at least one bio-based monomer; and the polymer has a T g between 50°C and 80°C; b. a coloring agent dispersed in the amorphous thermoplastic polymer; and wherein the powder has a mean partical size of less than 30 um. a mixture of, a. an amorphous thermoplastic polymer consisting of a carboxyl or hydroxyl functional polyester wherein the carboxyl or hydroxyl functional polyester is derived from a dianhydrohexitol, a first diacid moiety, and a second diacid moiety, optionally a monoacid may also be included; wherein the polymer is derived from at least one bio-based monomer; and the polymer has a T g between 50°C and 80°C; b. a coloring agent dispersed in the amorphous thermoplastic polymer; and wherein the powder has a mean partical size of less than 30 um. a. an amorphous thermoplastic polymer consisting of a carboxyl or hydroxyl functional polyester wherein the carboxyl or hydroxyl functional polyester is derived from a dianhydrohexitol, a first diacid moiety, and a second diacid moiety, optionally a monoacid may also be included; wherein the polymer is derived from at least one bio-based monomer; and the polymer has a T g between 50°C and 80°C; b. a coloring agent dispersed in the amorphous thermoplastic polymer; and wherein the powder has a mean partical size of less than 30 um.
A memory circuit comprising: a plurality of cells, each including: a bistable circuit configured to store data; and a non-volatile element (MJT1, MJT2) configured to store data stored in the bistable circuit in a non-volatile manner and to restore data stored in a non-volatile manner to the bistable circuit; one or more power switches configured to change a voltage supplied, as a power-supply voltage, to the plurality of cells, wherein a single power switch of the one or more power switches is configured to supply the voltage to two or more of the plurality of cells, and the two or more of the plurality of cells being grouped to form a plurality of blocks; and a controller configured to perform a store operation on each of the plurality of blocks at different times within a period during the single power switch supplying a same voltage to the plurality of blocks. a plurality of cells, each including: a bistable circuit configured to store data; and a non-volatile element (MJT1, MJT2) configured to store data stored in the bistable circuit in a non-volatile manner and to restore data stored in a non-volatile manner to the bistable circuit; one or more power switches configured to change a voltage supplied, as a power-supply voltage, to the plurality of cells, wherein a single power switch of the one or more power switches is configured to supply the voltage to two or more of the plurality of cells, and the two or more of the plurality of cells being grouped to form a plurality of blocks; and a controller configured to perform a store operation on each of the plurality of blocks at different times within a period during the single power switch supplying a same voltage to the plurality of blocks.
An inflatable double-layered fabric, including an inflating part having gas inflatability, wherein the inflating part is composed of two separated fabric layers; a non-inflating part supporting the inflating part, wherein the non-inflating part includes a stepwise co-woven weave, and wherein the stepwise co-woven weave is co-woven stepwise and alternately with two separated fabric layers and a weave selected from the group consisting of a 1X1 weave, a 2X2 weave, a 3X3 weave, a stain weave, a partially co-woven weave of double-layered fabric, and a mixed weave thereof; and a co-woven part constituting a boundary between the inflating part and the non-inflating part, wherein the co-woven part includes an enantiomorph weave where two separated fabric layers are co-woven while forming an enantiomorph centered on an intersecting point, characterised in that the width of the co-woven weave combining two separated fabric layers is 0.3 to 2.5 mm, in the stepwise co-woven weave of the non-inflating part, wherein the continuing length of the co-woven weave to one direction is 1 to 10 mm, in the stepwise co-woven weave of the non-inflating part, and wherein the gap between the co-woven parts, which is a width of the layers of double-layered fabric, is 3 to 35 mm, in the stepwise co-woven weave of the non-inflating part.
A rubber formulation comprising: a base rubber composition; from 0.1 to 20 weight percent graphenic carbon particles; and from 1 to 50 weight percent filler particles, wherein the graphenic carbon particles have an oxygen content of less than 2 atomic weight percent and the rubber formulation has a surface resistivity of less than 10 10 Ω/sq. a base rubber composition; from 0.1 to 20 weight percent graphenic carbon particles; and from 1 to 50 weight percent filler particles, wherein the graphenic carbon particles have an oxygen content of less than 2 atomic weight percent and the rubber formulation has a surface resistivity of less than 10 10 Ω/sq.
A fluid delivery system comprising: a fluid reservoir; a pump that controls the flow of fluid from the fluid reservoir to a patient via a fluid path; a sensor located along the fluid path to detect fluid flow or pressure, the fluid path having a cavity adjacent a portion of the fluid path such that the fluid path is exposed within the cavity; and a processor configured to control the pump to deliver the fluid to the patient and to receive sensor data from the sensor; characterized in that the sensor comprises a protrusion on a sensor enclosure, the protrusion is configured to extend away from the sensor enclosure and into the cavity, and the cavity is dimensioned such that an exterior distal end of the protrusion is within the cavity and volume of the fluid in the cavity is minimized when the exterior distal end of the protrusion is disposed within the cavity, and wherein, when the protrusion is disposed within the cavity, the protrusion is exposed to the fluid in the fluid path to allow contact between the fluid and the sensor to detect the fluid flow or pressure, the sensor enclosure having electronics for generating sensor data corresponding to the detected fluid flow or pressure, the electronics configured to be connected to the processor to provide the sensor data to the processor. a fluid reservoir; a pump that controls the flow of fluid from the fluid reservoir to a patient via a fluid path; a sensor located along the fluid path to detect fluid flow or pressure, the fluid path having a cavity adjacent a portion of the fluid path such that the fluid path is exposed within the cavity; and a processor configured to control the pump to deliver the fluid to the patient and to receive sensor data from the sensor; characterized in that the sensor comprises a protrusion on a sensor enclosure, the protrusion is configured to extend away from the sensor enclosure and into the cavity, and the cavity is dimensioned such that an exterior distal end of the protrusion is within the cavity and volume of the fluid in the cavity is minimized when the exterior distal end of the protrusion is disposed within the cavity, and wherein, when the protrusion is disposed within the cavity, the protrusion is exposed to the fluid in the fluid path to allow contact between the fluid and the sensor to detect the fluid flow or pressure, the sensor enclosure having electronics for generating sensor data corresponding to the detected fluid flow or pressure, the electronics configured to be connected to the processor to provide the sensor data to the processor.
An actuator module, comprising: a motor part including a drive shaft and a drive part which includes the stator of an electric motor and is configured to rotate the drive shaft about an axis; a reducer installed on one axial side of the drive part and configured to increase an output torque according to driving of the motor part; a brake installed on the opposite axial side of the drive part and configured to suppress rotation of the motor part; an encoder installed on the axial side of the brake opposite to the drive part and configured to sense an operation of the drive shaft; a controller installed on the axial side of the encoder opposite to the brake and electrically connected to the motor part to control the motor part; a first housing configured to surround the motor part, the reducer, the brake, the encoder, and the controller, wherein an airflow path through which an airflow can flow in order to dissipate the heat generated inside the actuator module to the outside is formed to extend from the motor part; characterized in that an airflow circulation member configured to circulate an airflow located around the motor part is formed in the drive shaft at an axial position between the motor part and the brake, wherein the airflow circulation member extends such that at least a portion of the airflow circulation member is located within the airflow path. a motor part including a drive shaft and a drive part which includes the stator of an electric motor and is configured to rotate the drive shaft about an axis; a reducer installed on one axial side of the drive part and configured to increase an output torque according to driving of the motor part; a brake installed on the opposite axial side of the drive part and configured to suppress rotation of the motor part; an encoder installed on the axial side of the brake opposite to the drive part and configured to sense an operation of the drive shaft; a controller installed on the axial side of the encoder opposite to the brake and electrically connected to the motor part to control the motor part; a first housing configured to surround the motor part, the reducer, the brake, the encoder, and the controller, wherein an airflow path through which an airflow can flow in order to dissipate the heat generated inside the actuator module to the outside is formed to extend from the motor part; characterized in that an airflow circulation member configured to circulate an airflow located around the motor part is formed in the drive shaft at an axial position between the motor part and the brake, wherein the airflow circulation member extends such that at least a portion of the airflow circulation member is located within the airflow path.
An espagnolette fitting for a turn and tilt window with an opening stay, with a fitting part on the frame side and a fitting part on the casement side, a pivot bearing for the bearing of a first end of the stay arm of the opening stay on the fitting part on the frame side, with a fastening arranged in the fitting part on the casement side for articulating the second end of the stay arm and with a locking element drivable by an espagnolette for the selective blocking or releasing of the movement of the stay arm relative to the fitting part on the casement side, characterized by an additional locking independent of the movement of the espagnolette for the selective blocking or release of the movement of the stay arm relative to the fitting part on the casement side.
An apparatus, comprising: - a body comprising: a receptacle for receiving a crystal, the receptacle extending in a longitudinal direction, the receptacle comprising a first wall extending in the longitudinal direction and a second wall extending in the longitudinal direction, the first wall and the second wall being substantially perpendicular to one another to form a corner region extending in the longitudinal direction; characterized by - one or more spring clips securable to the body configured to exert forces on two different faces of a crystal to push the crystal into a corner of the receptacle, wherein the one or more spring clips include a single spring clip, said single spring clip comprises: a rounded first bend region extending in the longitudinal direction; a rounded second bend region extending in the longitudinal direction; a biasing region connecting the first bend region to the second bend region and wherein said single spring clip is configured to secure the crystal to the body by exerting nearly equal forces on the crystal in orthogonal directions to urge the crystal toward the corner region. - a body comprising: a receptacle for receiving a crystal, the receptacle extending in a longitudinal direction, the receptacle comprising a first wall extending in the longitudinal direction and a second wall extending in the longitudinal direction, the first wall and the second wall being substantially perpendicular to one another to form a corner region extending in the longitudinal direction; characterized by - one or more spring clips securable to the body configured to exert forces on two different faces of a crystal to push the crystal into a corner of the receptacle, wherein the one or more spring clips include a single spring clip, said single spring clip comprises: a rounded first bend region extending in the longitudinal direction; a rounded second bend region extending in the longitudinal direction; a biasing region connecting the first bend region to the second bend region and wherein said single spring clip is configured to secure the crystal to the body by exerting nearly equal forces on the crystal in orthogonal directions to urge the crystal toward the corner region. a rounded first bend region extending in the longitudinal direction; a rounded second bend region extending in the longitudinal direction; a biasing region connecting the first bend region to the second bend region and
A digital acoustic device comprising at least one suspended diaphragm facing a support and at least one piezoelectric actuator (6, 10) associated with said diaphragm, said associated actuator (6, 10) being configured to move said diaphragm away from and/or closer to said support, said device also comprising stop means configured to interrupt the movement of said diaphragm further to activating said actuator (6, 10) when the diaphragm has a non-zero speed, the stop means being sized so as to interrupt the movement of the diaphragm when the movement of the diaphragm is greater than or equal to 50% of the theoretical maximum stroke of the diaphragm and lower than or equal to 75% of the theoretical maximum stroke of the diaphragm.
A method for manufacturing a portable data carrier, in particular a chip card, with the method steps of: - making available a carrier band with an upper side and a lower side disposed opposite the upper side; and - forming a contact field with at least one contact area (C1-C9) in an electrochemical process on an upper side of the carrier band, wherein - the electrical feed line required for forming the one contact area (C1-C9) is removed in the edge region of the contact area (C1-C9) and said feed line at the edge of the contact area (C1-C9) is formed with an electrically insulating coating, characterized in that the removal of the feed line and/or of the contact areas (C1-C9) in the edge region is effected by means of high-energy radiation. - making available a carrier band with an upper side and a lower side disposed opposite the upper side; and - forming a contact field with at least one contact area (C1-C9) in an electrochemical process on an upper side of the carrier band, wherein - the electrical feed line required for forming the one contact area (C1-C9) is removed in the edge region of the contact area (C1-C9) and said feed line at the edge of the contact area (C1-C9) is formed with an electrically insulating coating,