mhurhangee/ep-ind-claims huggingface dataset:
Motor-driven power tool having a drive motor, the motor shaft of which is driven in a rotating manner, comprising a tool driveshaft which is driven in an oscillating manner about its longitudinal axis, and comprising a coupling gear for converting the rotational movement of the motor shaft into an oscillating driving movement of the tool driveshaft, wherein a coupling is provided which compensates for at least an angular offset between the motor shaft and the tool driveshaft, which deviates from an axis-parallel or right-angled arrangement of the two shafts (18, 24), wherein the coupling comprises a coupling shaft (42; 42a), which is coupled on a drive side to the motor shaft via a first joint connection, and which is coupled on an output side via a second joint connection to the coupling gear, and wherein at least one sliding joint coupling (48, 52, 50, 54) is provided between the drive side and the output side, characterised in that the first joint connection comprises a first ball head, which is guided on an inner surface of the coupling shaft and which drives the coupling shaft via two first drive pins, and in that the second joint connection comprises a second ball head guided on an inner surface of the coupling shaft, which is driven by the coupling shaft via two second drive pins.
A multi-phase electric motor, comprising: a stator comprising a plurality of wire coils; at least one rotor, the rotor being disposed adjacent to the stator, the rotor being mounted on a rotatable drive shaft; a single power source; a position sensor operably connected to the rotor to track the position of the rotor; and a control circuit operably connected to the power source, the position sensor, and the wire coils, for controlling distribution of electrical energy to the wire coils, the control circuit being configured to directly transfer electrical energy from a first coil to a second coil, using information on the position of the rotor which is fed from the position sensor to the control circuit, by connecting the first coil to the second coil, and the control circuit and the power source are arranged for energizing the first coil and the second coil, wherein the power source is connected via a switching device to the first coil, and wherein the second coil is connected via devices, which direct current in a forward-only direction, to the first coil, so that when the switching device is closed, the power source energizes the first coil and does not energize the second coil, and when the switching device is opened, a collapsing field from the first coil energizes the second coil via the devices and the second coil is not energized by the power source, characterized in that the switching device is connected between the power source and the first coil, and a series connection of the second coil and the devices, which direct current in the forward-only direction, is connected in parallel to the first coil; the plurality of coils of the stator surround a non-magnetizable core; the rotor is provided with permanent magnets embedded therein. a stator comprising a plurality of wire coils; at least one rotor, the rotor being disposed adjacent to the stator, the rotor being mounted on a rotatable drive shaft; a single power source; a position sensor operably connected to the rotor to track the position of the rotor; and a control circuit operably connected to the power source, the position sensor, and the wire coils, for controlling distribution of electrical energy to the wire coils, the control circuit being configured to directly transfer electrical energy from a first coil to a second coil, using information on the position of the rotor which is fed from the position sensor to the control circuit, by connecting the first coil to the second coil, and the control circuit and the power source are arranged for energizing the first coil and the second coil, wherein the power source is connected via a switching device to the first coil, and wherein the second coil is connected via devices, which direct current in a forward-only direction, to the first coil, so that when the switching device is closed, the power source energizes the first coil and does not energize the second coil, and when the switching device is opened, a collapsing field from the first coil energizes the second coil via the devices and the second coil is not energized by the power source,
A disposable absorbent incontinence article comprising: a liquid permeable topsheet, a liquid impermeable backsheet and an absorbent core positioned in between the topsheet and the backsheet, whereby the topsheet, backsheet and absorbent core form a chassis of the absorbent article; the absorbent article further comprising a front region, a rear region and a crotch region, said crotch region interconnecting the front and the rear region; a longitudinal axis which extends from the front region over the crotch region to the rear region, and a transverse axis which is generally perpendicular to the longitudinal axis; whereby the chassis comprises two transversely opposed side edges (6, 7) substantially extending along the longitudinal axis, and a front edge and a rear edge at respectively the front region and rear region, which front edge and rear edge substantially extend along the transverse axis; the absorbent article further comprising at least one front side panel (12, 13) attached to the front region and/or at least one rear side panel (11, 14) attached to the rear region, whereby said front (12, 13) and/or rear (11, 14) side panel comprises a proximal edge and a distal edge which are transversely opposed, and an upper edge and a lower edge, each extending between the proximal to the distal edge, the upper edge being located closer to the front edge or rear edge of the chassis than the lower edge for respectively a front side panel (12, 13) and a rear side panel (11, 14); wherein the proximal and the distal edge substantially run parallel to each other along the longitudinal axis and whereby the upper edge of the front (12, 13) and/or the rear (11, 14) side panel makes a non-zero angle alpha with the transverse axis, whereby the lower edge of the front (12, 13) and/or the rear (11, 14) side panel makes an angle beta with the transverse axis, characterized in that the angle beta is larger than the angle alpha.
Process of preparation of a food composition based on fresh spirulina, comprising at least 50% by mass of fresh spirulina with a water content greater than or equal to 15%; 0.1 to 4% of antioxidant and antimicrobial agents extracted from plants; 0.1 to 20% of food fat characterised in that it comprises the following steps: - harvesting of spirulina; - filtration and pressing; - transfer into a mixing chamber and place under vacuum a quantity of filtered and pressed spirulina that will represent at least 50% of the final total mass; - introduction in the vacuum chamber of antioxidant agents and antimicrobial agents, followed by mixing - introduction of food fat in the vacuum chamber, followed by mixing; - vacuum breaking, composition recovery and packaging. - harvesting of spirulina; - filtration and pressing; - transfer into a mixing chamber and place under vacuum a quantity of filtered and pressed spirulina that will represent at least 50% of the final total mass; - introduction in the vacuum chamber of antioxidant agents and antimicrobial agents, followed by mixing - introduction of food fat in the vacuum chamber, followed by mixing; - vacuum breaking, composition recovery and packaging.
A spindle nut for a lead screw drive, the spindle nut comprising a female thread, wherein at least the female thread of the spindle nut is made from plastic or the entire spindle nut is produced in one piece from plastic; wherein the spindle nut has an asymmetrical thread cross-section; and wherein the female thread of the spindle nut has a thread cross-section in which the profile sectional area of the thread helix, which is intended for engagement into the thread of the spindle, is greater, in particular is greater by a factor of at least 1.2, than the free thread sectional area of the thread of the spindle nut; characterised in that the spindle nut has a thread cross-section whose transitions from flank to thread apex are rounded and whose thread apexes are continuously rounded between the flanks and that the spindle nut is of a multi-thread configuration. wherein the female thread of the spindle nut has a thread cross-section in which the profile sectional area of the thread helix, which is intended for engagement into the thread of the spindle, is greater, in particular is greater by a factor of at least 1.2, than the free thread sectional area of the thread of the spindle nut; characterised in that the spindle nut has a thread cross-section whose transitions from flank to thread apex are rounded and whose thread apexes are continuously rounded between the flanks and that the spindle nut is of a multi-thread configuration.
A compressor, comprising: a casing; a retaining ring coupled to an inside of the casing; a plurality of cantilever type vanes fastened to an inner circumferential surface of the retaining ring and spaced apart from each other along a circumferential direction of the retaining ring; a diffuser fixed to face an end of a rotor disk installed in an inner space of the casing; characterised in that it further comprises a shroud segment movably disposed on the diffuser to face at least one vane tip of the plurality of vanes; and an elastic member installed between the shroud segment and the diffuser. a casing; a retaining ring coupled to an inside of the casing; a plurality of cantilever type vanes fastened to an inner circumferential surface of the retaining ring and spaced apart from each other along a circumferential direction of the retaining ring; a diffuser fixed to face an end of a rotor disk installed in an inner space of the casing; characterised in that it further comprises a shroud segment movably disposed on the diffuser to face at least one vane tip of the plurality of vanes; and an elastic member installed between the shroud segment and the diffuser.
A securement system for a wheeled mobility device, the securement system comprising: a first electric motor that causes a wheeled mobility device restraint (200, 300) to exert a force on a wheeled mobility device; characterized in that a computing system includes a processor configured to receive an input indicative of the force being applied to the wheeled mobility device and activate the first electric motor to cause the wheeled mobility device restraint (200, 300) to exert an additional force on the wheeled mobility device; and the processor is programmed to confirm securement of the wheeled mobility device during transit by periodically activating the first electric motor with a predetermined frequency, wherein the first electric motor stays activated until the input exceeds a threshold value. a first electric motor that causes a wheeled mobility device restraint (200, 300) to exert a force on a wheeled mobility device; characterized in that a computing system includes a processor configured to receive an input indicative of the force being applied to the wheeled mobility device and activate the first electric motor to cause the wheeled mobility device restraint (200, 300) to exert an additional force on the wheeled mobility device; and the processor is programmed to confirm securement of the wheeled mobility device during transit by periodically activating the first electric motor with a predetermined frequency, wherein the first electric motor stays activated until the input exceeds a threshold value.
A halogen-free composition that comprises the following components: • a tin compound ranging a percentage between 0.1 and 1% by weight with a particle size of less than 5 micrometer, • a polymeric binder ranging a percentage between 5 and 50% by weight, • an intumescent composition ranging a percentage between 20 and 60% by weight, • TiO 2 ranging a percentage between 4 and 7% by weight, and • alumina trihydrate ranging a percentage between 2 and 5% by weight. • a tin compound ranging a percentage between 0.1 and 1% by weight with a particle size of less than 5 micrometer, • a polymeric binder ranging a percentage between 5 and 50% by weight, • an intumescent composition ranging a percentage between 20 and 60% by weight, • TiO 2 ranging a percentage between 4 and 7% by weight, and • alumina trihydrate ranging a percentage between 2 and 5% by weight.
A method of connecting to wireless hardware of an elevator system during installation, the method comprising: detecting, using a mobile device, a sensor (211, 212) of the wireless hardware within range; connecting the mobile device and the sensor (211, 212) using a wireless connection; and configuring a parameter of the sensor (211, 212) using the mobile device through the wireless connection to the sensor, characterized in that configuring the parameter of the sensor (211, 212) comprises: placing the wireless hardware in a learning mode in which a wireless range can be set by an installer, comprising: tracking a distance between the mobile device and the wireless hardware; receiving a set range command from the mobile device; and setting the wireless range to the tracked distance between the mobile device and the wireless hardware. detecting, using a mobile device, a sensor (211, 212) of the wireless hardware within range; connecting the mobile device and the sensor (211, 212) using a wireless connection; and configuring a parameter of the sensor (211, 212) using the mobile device through the wireless connection to the sensor, characterized in that configuring the parameter of the sensor (211, 212) comprises: placing the wireless hardware in a learning mode in which a wireless range can be set by an installer, comprising: tracking a distance between the mobile device and the wireless hardware; receiving a set range command from the mobile device; and setting the wireless range to the tracked distance between the mobile device and the wireless hardware. tracking a distance between the mobile device and the wireless hardware; receiving a set range command from the mobile device; and setting the wireless range to the tracked distance between the mobile device and the wireless hardware.
A pump assembly (100, 200) comprising: a housing having a pumping chamber formed therein, the housing including first and second metal pressure plate portions (110, 210) that form at least a portion of the pumping chamber wherein at least one of the first and second pressure plate portions (110, 210) has a hard coating formed of a different material than a remainder of the housing metal on a surface thereof where integrated ports are formed in surfaces of the pressure plate portions; and a rotor (104, 204) received in the pumping chamber for rotation relative to the housing; characterized in that: the first and second pressure plate portions (110, 210) include surface irregularities comprising at least one of ridges and valleys or dimples, the surface irregularities acting as crack location controls allowing purposeful cracking at locations that have no adverse effect on the structure and operation of the first and second metal pressure plate portions (110, 210), thereby relieving stresses and promoting adhesion of the coating to the underlying metal. a housing having a pumping chamber formed therein, the housing including first and second metal pressure plate portions (110, 210) that form at least a portion of the pumping chamber wherein at least one of the first and second pressure plate portions (110, 210) has a hard coating formed of a different material than a remainder of the housing metal on a surface thereof where integrated ports are formed in surfaces of the pressure plate portions; and a rotor (104, 204) received in the pumping chamber for rotation relative to the housing; characterized in that: the first and second pressure plate portions (110, 210) include surface irregularities comprising at least one of ridges and valleys or dimples, the surface irregularities acting as crack location controls allowing purposeful cracking at locations that have no adverse effect on the structure and operation of the first and second metal pressure plate portions (110, 210), thereby relieving stresses and promoting adhesion of the coating to the underlying metal. the first and second pressure plate portions (110, 210) include surface irregularities comprising at least one of ridges and valleys or dimples, the surface irregularities acting as crack location controls allowing purposeful cracking at locations that have no adverse effect on the structure and operation of the first and second metal pressure plate portions (110, 210), thereby relieving stresses and promoting adhesion of the coating to the underlying metal.
A thermal transfer sheet comprising: a substrate; a colorant layer provided on one surface of the substrate; and a heat-resistant slipping layer provided on the surface of the substrate opposite to the colorant layer, wherein the heat-resistant slipping layer contains at least a binder resin component being a cured product of a resin composition containing an amino group-containing acrylic resin and an epoxysilane, and a slipping agent.
A fusion polypeptide according to formula I R1-FC-R2 (formula I) wherein R1 denotes a first Fc-receptor, R2 denotes a second Fc-receptor, and FC denotes a heavy chain Fc-region polypeptide, wherein R1 or R2 or both are present, wherein FC does not substantially bind to R1 and/or R2, wherein R1 and R2 are independently of each other selected from the group of human Fcgamma-receptor, human neonatal Fc-receptor, murine Fc-receptor, and rabbit neonatal Fc-receptor, and wherein FC is human IgG1 heavy chain polypeptide with the mutations L234A, L235A and P329G. R1 denotes a first Fc-receptor, R2 denotes a second Fc-receptor, and FC denotes a heavy chain Fc-region polypeptide,
A method for heating a plate workpiece having a main heating target region in which a cross sectional area of a cross section perpendicular to a first direction varies monotonically along the first direction and a sub heating target region provided adjacent to and integrally with a portion of the main heating target region, the method comprising: heating the sub heating target region; and heating the main heating target region by a direct resistance heating, characterized in that the heating of the main heating target region comprises moving at least one of a pair of electrodes contacting the plate workpiece in the first direction and at a constant speed on the main heating target region, the at least one of the pair of electrodes being arranged to extend across the main heating target region in a second direction intersecting the first direction, and adjusting electric current flowing between the pair of electrodes in accordance with a displacement of the at least one of the pair of electrodes that is being moved, and in that the main heating target region is heated after the heating of the sub heating target region to heat the main heating target region and the sub heating target region to be in a target temperature range. heating the sub heating target region; and heating the main heating target region by a direct resistance heating, characterized in that the heating of the main heating target region comprises moving at least one of a pair of electrodes contacting the plate workpiece in the first direction and at a constant speed on the main heating target region, the at least one of the pair of electrodes being arranged to extend across the main heating target region in a second direction intersecting the first direction, and adjusting electric current flowing between the pair of electrodes in accordance with a displacement of the at least one of the pair of electrodes that is being moved, and in that the main heating target region is heated after the heating of the sub heating target region to heat the main heating target region and the sub heating target region to be in a target temperature range.
A method of manufacturing a fluid-filled chamber, the method comprising: locating a thermoplastic polymer foam tensile member within a mold and between a first layer and a second layer of thermoplastic polymer material, a first surface of the tensile member being located adjacent to the first layer, and a second surface of the tensile member being located adjacent to the second layer, the tensile member defining cavities located between the first surface and the second surface and defined between columns extending between the first surface and the second surface, the first surface and the second surface each defining outward protrusions in areas that correspond with the locations of the cavities to provide the tensile member with a first portion at a location of each of the cavities that has a greater compressibility than a second portion at a location of each of the columns; compressing the tensile member, the first layer, and the second layer within the mold to directly bond (a) the first layer to the first surface of the tensile member, (b) the second layer to the second surface of the tensile member, and (c) the first layer and the second layer together around a periphery of the tensile member; and incorporating the chamber into an article of footwear. locating a thermoplastic polymer foam tensile member within a mold and between a first layer and a second layer of thermoplastic polymer material, a first surface of the tensile member being located adjacent to the first layer, and a second surface of the tensile member being located adjacent to the second layer, the tensile member defining cavities located between the first surface and the second surface and defined between columns extending between the first surface and the second surface, the first surface and the second surface each defining outward protrusions in areas that correspond with the locations of the cavities to provide the tensile member with a first portion at a location of each of the cavities that has a greater compressibility than a second portion at a location of each of the columns; compressing the tensile member, the first layer, and the second layer within the mold to directly bond (a) the first layer to the first surface of the tensile member, (b) the second layer to the second surface of the tensile member, and (c) the first layer and the second layer together around a periphery of the tensile member; and incorporating the chamber into an article of footwear.