mhurhangee/ep-ind-claims huggingface dataset:
A differential control system for a motor vehicle having driving wheels, drive shafts (3a, 3b, 4a, 4b, 5a, 5c, 12) to transmit driving power from the motor to the driving wheels and at least one differential (6, 7, 8, 9) to interconnect drive shafts (3a, 3b, 4a, 4b, 5a, 5c, 12), said differential control system comprising at least one differential lock which is able to operate the differential (6, 7, 8, 9) into at least a locked or an unlocked state, a controller that controls the differential lock, characterized in that said differential control system further comprises: - a manually operable control member freely rotating bidirectionally around at least one axis (X-X'), - an encoder connected to the control member to convert a rotation of the control member into a signal fed to the controller which controls the differential lock in order to operate the differential (6, 7, 8, 9) into a locked or an unlocked state. - a manually operable control member freely rotating bidirectionally around at least one axis (X-X'), - an encoder connected to the control member to convert a rotation of the control member into a signal fed to the controller which controls the differential lock in order to operate the differential (6, 7, 8, 9) into a locked or an unlocked state.
A staple cartridge, comprising: a cartridge body comprising a plurality of staple cavities; a plurality of staples, wherein at least a portion of each said staple is removably stored within a said staple cavity, wherein each said staple is movable between an unfired position and a fired position, and wherein each said staple is configured to adopt an unfired height in its unfired position and a predetermined fired height in its fired position; and characterised by an implantable tissue thickness compensator, wherein said tissue thickness compensator is configured to be captured within said staples, and wherein said tissue thickness compensator may assume different compressed heights within different said staples in their fired position; wherein said tissue thickness compensator comprises an uncompressed height which is equal to or taller than said fired height of said staples. a cartridge body comprising a plurality of staple cavities; a plurality of staples, wherein at least a portion of each said staple is removably stored within a said staple cavity, wherein each said staple is movable between an unfired position and a fired position, and wherein each said staple is configured to adopt an unfired height in its unfired position and a predetermined fired height in its fired position; and characterised by an implantable tissue thickness compensator, wherein said tissue thickness compensator is configured to be captured within said staples, and wherein said tissue thickness compensator may assume different compressed heights within different said staples in their fired position; wherein said tissue thickness compensator comprises an uncompressed height which is equal to or taller than said fired height of said staples.
A method of lifting a payload from an underwater location, comprising: flying a latch unit through the water to the payload, the latch unit being attached to a lift line supported by a winch on a surface vessel to carry the lift line toward the payload; attaching the latch unit to the payload; and lifting the payload using tension applied through the lift line via the latch unit; characterised in that the winch that supports the lift line is a heave-compensating winch. flying a latch unit through the water to the payload, the latch unit being attached to a lift line supported by a winch on a surface vessel to carry the lift line toward the payload; attaching the latch unit to the payload; and lifting the payload using tension applied through the lift line via the latch unit;
A non-contact power feeding device comprising: a plurality of power feeding elements that are disposed spatially separated from one another in a movement direction set in a fixed section; an AC power supply that supplies AC power to each of the power feeding elements; two power receiving elements that are provided in a moving body, which moves in the movement direction, that is electrically coupled to the power feeding elements that are positioned in an opposing manner, and that receives AC power in a non-contact manner; and a power receiving circuit that converts AC power received by the two power receiving elements, and that generates a drive voltage and outputs the drive voltage to an electrical load provided in the moving body, wherein the two power receiving elements are disposed spatially separated from one another in the movement direction of the moving body, and when a length of the power feeding elements in the movement direction is defined as LT, a separation distance between the power feeding elements is defined as DT, a length of the two power receiving elements in the movement direction is defined as LR, and a separation distance between the two power receiving elements is defined as DR, characterized in that the relationship DT ≤ DR and the relationship (2 × LR + DR) ≤ LT are satisfied. a plurality of power feeding elements that are disposed spatially separated from one another in a movement direction set in a fixed section; an AC power supply that supplies AC power to each of the power feeding elements; two power receiving elements that are provided in a moving body, which moves in the movement direction, that is electrically coupled to the power feeding elements that are positioned in an opposing manner, and that receives AC power in a non-contact manner; and a power receiving circuit that converts AC power received by the two power receiving elements, and that generates a drive voltage and outputs the drive voltage to an electrical load provided in the moving body, wherein the two power receiving elements are disposed spatially separated from one another in the movement direction of the moving body, and when a length of the power feeding elements in the movement direction is defined as LT, a separation distance between the power feeding elements is defined as DT, a length of the two power receiving elements in the movement direction is defined as LR, and a separation distance between the two power receiving elements is defined as DR, characterized in that the relationship DT ≤ DR and the relationship (2 × LR + DR) ≤ LT are satisfied.
A fluid delivery device for delivering therapeutic fluid to a patient comprising a dispensing unit comprising: a fluid delivery tube including an occlusion detection portion; a reservoir coupled to said fluid delivery tube and configured to deliver therapeutic fluid to the patient via said fluid delivery tube. an occlusion detection sensor configured to be coupled to said fluid delivery tube, said occlusion detection sensor being further configured to detect alteration of a shape of said occlusion detection portion when a change in fluid pressure occurs within said fluid delivery tube; and a PCB comprising a processor and other electronic components collecting data from the occlusion detection sensor and configured to detect occlusion within said fluid delivery tube and to detect normal delivery of therapeutic fluid to the patient based on a predetermined pressure value of the fluid corresponding to said normal delivery; characterized in that: the dispensing unit includes: a reusable part including components of a fluid metering system, electronic circuitry and other components; and a disposable part including the occlusion detection portion of the fluid delivery tube, the dispensing unit and the occlusion detector sensor; with the dispensing unit and the occlusion detection sensor being configured to become operative upon coupling together the reusable part and the disposable part. a fluid delivery tube including an occlusion detection portion; a reservoir coupled to said fluid delivery tube and configured to deliver therapeutic fluid to the patient via said fluid delivery tube. an occlusion detection sensor configured to be coupled to said fluid delivery tube, said occlusion detection sensor being further configured to detect alteration of a shape of said occlusion detection portion when a change in fluid pressure occurs within said fluid delivery tube; and a PCB comprising a processor and other electronic components collecting data from the occlusion detection sensor and configured to detect occlusion within said fluid delivery tube and to detect normal delivery of therapeutic fluid to the patient based on a predetermined pressure value of the fluid corresponding to said normal delivery; characterized in that: the dispensing unit includes: a reusable part including components of a fluid metering system, electronic circuitry and other components; and a disposable part including the occlusion detection portion of the fluid delivery tube, the dispensing unit and the occlusion detector sensor; with the dispensing unit and the occlusion detection sensor being configured to become operative upon coupling together the reusable part and the disposable part.
A molecular state machine implemented in a prokaryotic or eukaryotic cell comprising: an engineered signaling pathway that generates a tracking molecule in response to a first signal (406, 508) associated with a first state; an operon that changes a rate of transcription of an RNA product based on the tracking molecule; a double-stranded polynucleotide having a target site; a homology directed repair template with homology to the target site, wherein an amount of the HDR template available in the cell or an activity of a nuclease configured to create a double strand break at a cut site in the target site is increased by the RNA product; and an inhibition system that reduces the amount of HDR template available in the cell or the activity of the nuclease; wherein, when the cell is a eukaryotic vertebrate cell, it is non-reproductive, and wherein the cell is not a human stem cell. an engineered signaling pathway that generates a tracking molecule in response to a first signal (406, 508) associated with a first state; an operon that changes a rate of transcription of an RNA product based on the tracking molecule; a double-stranded polynucleotide having a target site; a homology directed repair template with homology to the target site, wherein an amount of the HDR template available in the cell or an activity of a nuclease configured to create a double strand break at a cut site in the target site is increased by the RNA product; and an inhibition system that reduces the amount of HDR template available in the cell or the activity of the nuclease; wherein, when the cell is a eukaryotic vertebrate cell, it is non-reproductive, and wherein the cell is not a human stem cell.
A wireless power transmitter comprising: a transmission coil receiving unit; a transmission coil, disposed in the transmission coil receiving unit, configured to transmit wireless power to a wireless power receiver; a power supply device connected to the transmission coil configured to supply power to the transmission coil; a heat radiation member disposed on the power supply device configured to radiate the heat generated from the power supply device; an inlet device disposed at to one side of the transmission coil, wherein the inlet device is configured to supply the air to the transmission coil and the heat radiation member configured to decrease the internal temperature of the wireless power transmitter, characterized in that the wireless power transmitter further comprises a first case and a second case coupled to the first case, wherein a first passage groove is provided in the second case in such a way that the heat generated from the transmission coil flows into the first passage groove, wherein air is introduced into the first passage groove through the inlet device, wherein the first passage groove is in a form of surrounding an outer periphery of the transmission coil. a transmission coil receiving unit; a transmission coil, disposed in the transmission coil receiving unit, configured to transmit wireless power to a wireless power receiver; a power supply device connected to the transmission coil configured to supply power to the transmission coil; a heat radiation member disposed on the power supply device configured to radiate the heat generated from the power supply device; an inlet device disposed at to one side of the transmission coil, wherein the inlet device is configured to supply the air to the transmission coil and the heat radiation member configured to decrease the internal temperature of the wireless power transmitter, characterized in that the wireless power transmitter further comprises a first case and a second case coupled to the first case, wherein a first passage groove is provided in the second case in such a way that the heat generated from the transmission coil flows into the first passage groove, wherein air is introduced into the first passage groove through the inlet device, wherein the first passage groove is in a form of surrounding an outer periphery of the transmission coil.
A transmission system for transmitting power generated by an engine of a vehicle, the transmission system comprising: - an input shaft connectable to the engine, the input shaft extending along a first axis; - an output shaft (15; 215) extending along a second axis, the second axis being different from the first axis; - a power device (6; 206) coaxial with the first axis; - a planetary gear train coaxial with the first axis comprising an annular gear and a sun gear; - a clutch located on the first axis; and characterized in that the engine when connected to the input shaft transmits power to the annular gear of the planetary gear train through the clutch and the system further comprises a further power device (7; 207) coaxial with the second axis and connected to the output shaft (15; 215); the further power device (7; 207) being a pump or a motor with variable displacement or an electric motor. - an input shaft connectable to the engine, the input shaft extending along a first axis; - an output shaft (15; 215) extending along a second axis, the second axis being different from the first axis; - a power device (6; 206) coaxial with the first axis; - a planetary gear train coaxial with the first axis comprising an annular gear and a sun gear; - a clutch located on the first axis; and
A modified polypeptide having an isopropylmalate synthase activity, wherein arginine at position 558 from a N-terminus of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 is substituted with histidine, alanine or glutamine, and/or glycine at position 561 from a N-terminus of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 1 is substituted with arginine or tyrosine.
A method of operating mechanically independent actuators (3.1) simultaneously for moving at least two aircraft movable aerodynamic surfaces (102.1,102.2), each actuator comprising an electric motor, the method comprising the steps of: • controlling the actuators with a control unit (2.1) coupled therewith to move the aerodynamic surfaces towards a predetermined position; • during the movement of aerodynamic surfaces, detecting the slowest actuator with actuator position sensors comprised within the actuators; and • controlling the actuators with the control unit coupled therewith such that adapting the actuators to operate matching the speed of the slowest actuator. • controlling the actuators with a control unit (2.1) coupled therewith to move the aerodynamic surfaces towards a predetermined position; • during the movement of aerodynamic surfaces, detecting the slowest actuator with actuator position sensors comprised within the actuators; and • controlling the actuators with the control unit coupled therewith such that adapting the actuators to operate matching the speed of the slowest actuator.
A knit component, comprising: a knit-in tensile area, comprising: an opening at least partially bounded by a first intersecting portion (26a-d) and a second intersecting portion (26a-d); and a first course of tensile material that is integrally knitted with the first intersecting portion via a first knit stitch through interlooping, the first course of tensile material comprising a first float having a first float length and extending from the first intersecting portion, across the opening, to the second intersecting portion, thereby spanning the opening, wherein the first float length is at least three stitches long, wherein the first intersecting portion (26a-d) and the second intersecting portion (26a-d) include a first material of a first yarn, and wherein the tensile material comprises a higher stiffness and a larger diameter compared to the first material, the knit component being characterized in that each opening (30, 44) is bounded by a plurality of intersecting portions (26a-d) and a plurality of arterial portions (28a-d), the arterial portions (28a-d) connecting adjacent intersecting portions (26a-d), wherein each intersecting portion (26a-d) has a width (w) that exceeds its height (h), wherein the height of an intersecting portion (26a-d) increases with a number of courses within the respective intersecting portion (26a-d), and wherein the width of an intersecting portion (26a-d) increases with a number of wales within the respective intersecting portion (26a-d). an opening at least partially bounded by a first intersecting portion (26a-d) and a second intersecting portion (26a-d); and a first course of tensile material that is integrally knitted with the first intersecting portion via a first knit stitch through interlooping, the first course of tensile material comprising a first float having a first float length and extending from the first intersecting portion, across the opening, to the second intersecting portion, thereby spanning the opening, wherein the first float length is at least three stitches long, wherein the first intersecting portion (26a-d) and the second intersecting portion (26a-d) include a first material of a first yarn, and wherein the tensile material comprises a higher stiffness and a larger diameter compared to the first material, the knit component being characterized in that each opening (30, 44) is bounded by a plurality of intersecting portions (26a-d) and a plurality of arterial portions (28a-d), the arterial portions (28a-d) connecting adjacent intersecting portions (26a-d), wherein each intersecting portion (26a-d) has a width (w) that exceeds its height (h), wherein the height of an intersecting portion (26a-d) increases with a number of courses within the respective intersecting portion (26a-d), and wherein the width of an intersecting portion (26a-d) increases with a number of wales within the respective intersecting portion (26a-d).
Tank cleaner with a first housing part, which can be connected to a supply line, a second housing part rotatable against the first housing part, an output shaft, which is rotatably received in the first housing part and connected to the second housing part, and with a drive connected indirectly or directly to the output shaft, wherein a securing element is engaged with the output shaft and the second housing part, and the first housing part has a first thread for connection to the supply line and the output shaft has a second thread for connection to the second housing part, characterized in that a direction of rotation of the first thread and a direction of rotation of the second thread are the same, and that the securing element comprises a threaded pin with a conical head and the conical head is in engagement with the output shaft.
A surgical stapling instrument including: a handle assembly; a first endoscopic portion and a first end effector, characterised in that the surgical stapling instrument comprises; a plurality of endoscopic portions of different types including the first endoscopic portion; and a plurality of end effectors of several types including the first end effector, the end effectors each being selectively connectable to a distal portion of an endoscopic portion and wherein each of the endoscopic portions (2020a, 2020b) includes an actuation member configured to engage a portion of an end effector and is selectively connectable to a distal portion of handle assembly and defines a longitudinal axis F-F. a handle assembly; a first endoscopic portion and a first end effector, characterised in that the surgical stapling instrument comprises; a plurality of endoscopic portions of different types including the first endoscopic portion; and a plurality of end effectors of several types including the first end effector, the end effectors each being selectively connectable to a distal portion of an endoscopic portion and wherein each of the endoscopic portions (2020a, 2020b) includes an actuation member configured to engage a portion of an end effector and is selectively connectable to a distal portion of handle assembly and defines a longitudinal axis F-F.
A method of using a printing jig system, the method comprising the steps of: positioning a print support portion in a base plate; securing an article onto a first article maintaining jig, the article extending over a processing aperture (304, 306, 308) of the first article maintaining jig, the article having a first surface and an opposite second surface; characterized in that said step of positioning the print support portion in the base plate is performed by aligning a plurality of alignment pins (404, 406) extending from a bottom surface of the print support portion with a plurality of receiving portions of a grid in the base plate; the method further comprising the steps of: positioning the first article maintaining jig on the base plate, wherein a top surface of the print support portion extends above a top surface of the first article maintaining jig; and printing on the first surface of the article in a location proximate the print support portion that is supporting the article at the second surface of the article. positioning a print support portion in a base plate; securing an article onto a first article maintaining jig, the article extending over a processing aperture (304, 306, 308) of the first article maintaining jig, the article having a first surface and an opposite second surface; characterized in that said step of positioning the print support portion in the base plate is performed by aligning a plurality of alignment pins (404, 406) extending from a bottom surface of the print support portion with a plurality of receiving portions of a grid in the base plate; the method further comprising the steps of: positioning the first article maintaining jig on the base plate, wherein a top surface of the print support portion extends above a top surface of the first article maintaining jig; and printing on the first surface of the article in a location proximate the print support portion that is supporting the article at the second surface of the article. positioning the first article maintaining jig on the base plate, wherein a top surface of the print support portion extends above a top surface of the first article maintaining jig; and printing on the first surface of the article in a location proximate the print support portion that is supporting the article at the second surface of the article.