mhurhangee/ep-ind-claims huggingface dataset:
A part placement system comprising: a linear actuator operably coupled to an output rod, the linear actuator adapted to drive the output rod between a first position and a second position; the part placement tool comprising a probe on an end of the output rod, the probe adapted to engage a part at the first position of the output rod and to place the part with respect to a locating fixture at the second position of the output rod; and a controller operably coupled with the linear actuator, the controller adapted for the linear actuator to modulate acceleration of the output rod between engagement of the part in the first position and placement of the part in the second position; wherein the controller is configured to determine the second position of the output rod responsive to contacting the locating fixture with the probe based on a selected spacing from a probe stop position with the tip of the probe contacting the locating fixture; and wherein the tip of the probe has the selected spacing from the locating fixture with the output rod in the second position, the spacing selected for releasing the part from the probe and engaging the part with the locating fixture; and wherein the controller is configured to determine the probe stop position based on a change in a motor current provided to the linear actuator with the tip of the probe contacting the locating fixture, the controller further configured to adjust the second position responsive to a change in the probe stop position, wherein the change is responsive to change in geometry of the locating fixture. a linear actuator operably coupled to an output rod, the linear actuator adapted to drive the output rod between a first position and a second position; the part placement tool comprising a probe on an end of the output rod, the probe adapted to engage a part at the first position of the output rod and to place the part with respect to a locating fixture at the second position of the output rod; and a controller operably coupled with the linear actuator, the controller adapted for the linear actuator to modulate acceleration of the output rod between engagement of the part in the first position and placement of the part in the second position; wherein the controller is configured to determine the second position of the output rod responsive to contacting the locating fixture with the probe based on a selected spacing from a probe stop position with the tip of the probe contacting the locating fixture; and wherein the tip of the probe has the selected spacing from the locating fixture with the output rod in the second position, the spacing selected for releasing the part from the probe and engaging the part with the locating fixture; and wherein the controller is configured to determine the probe stop position based on a change in a motor current provided to the linear actuator with the tip of the probe contacting the locating fixture, the controller further configured to adjust the second position responsive to a change in the probe stop position, wherein the change is responsive to change in geometry of the locating fixture.
A cap for a rigid container, comprising a base that is designed to be mounted on the opening of a container, a lid that is secured to the base via a hinge, and an opening device comprising a tampering indicator which comprises a tab that is linked to the lid by at least one breakable bridge, characterized in that a lug is pivotally mounted on the base, the lug comprising means for immobilizing the tab that are designed to hold the tab on the base when the lid moves from the closed position to the open position.
A portable sharpener for chainsaws comprising: - sharpening means configured to sharpen the teeth of a chain of a chainsaw; - a coupling device supporting the sharpening means and configured to be reversibly constrained to a chain guide bar of the chainsaw; where the coupling device comprises: - a support structure having a first plate adapted to be arranged parallel to a main extension plane of the bar and - one or more attachment members applied to said first plate and configured to constrain said support structure to the bar of the chainsaw; the portable sharpener characterised by the support structure comprising a second plate configured to abut against the bar in such a way as to be at least partly interposed between said bar and the chain, said first and second plate being arranged substantially in an L-configuration. - sharpening means configured to sharpen the teeth of a chain of a chainsaw; - a coupling device supporting the sharpening means and configured to be reversibly constrained to a chain guide bar of the chainsaw; - a support structure having a first plate adapted to be arranged parallel to a main extension plane of the bar and - one or more attachment members applied to said first plate and configured to constrain said support structure to the bar of the chainsaw; the portable sharpener characterised by the support structure comprising a second plate configured to abut against the bar in such a way as to be at least partly interposed between said bar and the chain, said first and second plate being arranged substantially in an L-configuration.
A robotic surgical system comprising: a plurality of robotic arms, each robotic arm comprising a plurality of nodes arranged in a ring network having a ring topology such that each of the plurality of nodes connects to two other nodes in the plurality of nodes; a first controller and a second controller in communication with the ring network of each of the robotic arms and with the first controller; wherein the first controller is configured to send the second controller a single message comprising a plurality of individual multi-node messages, each individual multi-node message associated with a different robotic arm and comprising a plurality of packets, each packet associated with a different node in the robotic arm; and wherein the second controller is configured to separate out each individual multi-node message from the single message and send each robotic arm its associated individual multi-node message, wherein the second controller is further configured to receive an individual multi-node message from the ring network of each of the robotic arms after its associated individual multi-node message passes through the ring network, combine the received individual multi-node messages into a merged message, and send the merged message to the first controller. a plurality of robotic arms, each robotic arm comprising a plurality of nodes arranged in a ring network having a ring topology such that each of the plurality of nodes connects to two other nodes in the plurality of nodes; a first controller and a second controller in communication with the ring network of each of the robotic arms and with the first controller; wherein the first controller is configured to send the second controller a single message comprising a plurality of individual multi-node messages, each individual multi-node message associated with a different robotic arm and comprising a plurality of packets, each packet associated with a different node in the robotic arm; and wherein the second controller is configured to separate out each individual multi-node message from the single message and send each robotic arm its associated individual multi-node message, wherein the second controller is further configured to receive an individual multi-node message from the ring network of each of the robotic arms after its associated individual multi-node message passes through the ring network, combine the received individual multi-node messages into a merged message, and send the merged message to the first controller.
A wheel hub unit comprising a wheel hub, a hydraulic motor and a bearing section comprising two grease lubricated bearings (52a, 52b) for supporting the wheel hub and the hydraulic motor, wherein the wheel hub unit comprises a first seal, the bearing section being sealed towards the hydraulic motor with the first seal for protecting the two grease lubricated bearings (52a, 52b) from hydraulic oil from the hydraulic motor.
A filter system for preparing beverages by means of a beverage substrate such as coffee powder, soup powder or tea, comprising a container and a filter or sieve provided for use in the container, by means of which the beverage substrate is passed into the heated liquid of a first liquid receiving space provided in the container, in which the filtered beverage substrate unfolds and releases its ingredients into the liquid, the filter system comprising means for forming a second liquid-receiving space, the filter comprises at least one flow-through opening for the liquid enriched with ingredients, wherein the flow-through opening is closable and the filter is a filter/screen container insertable into the container for receiving the beverage substrate, characterised in that the device is designed as a plate-shaped or disc-shaped shutoff element with at least one retaining element projecting upwards beyond the container edge of the container after insertion into the container, wherein the shutoff member can be introduced into the container and closes off positively and tightly against the inner wall of the filter/screen container, and a closure means is provided on the filter/screen container which closes off the at least one flow-through opening positively and/or non-positively by introducing the shutoff member into the container, so that the beverage substrate cannot unfold further in the second liquid space formed by the device.
A method of coating a metal substrate to increase the oxidation resistance of said substrate at high temperature, comprising the steps of: forming a powdered mixture of a high-melt superalloy component or MCrAlY, where M comprises Fe, Ni and/or Co, and a lower-melting component comprising silicon, boron, hafnium or gold, and a binder material for said powdered mixture; applying said powdered mixture to a surface of said metal substrate at room temperature using an atomized spray to form a coating of substantially uniform thickness on said substrate surface; and heating said coated substrate surface under vacuum conditions to a temperature in the range of 1038 to 1246°C (1900°F to 2275°F) to form a liquid phase in which the higher melting powders become suspended and develop a metallurgical bond by liquid phase sintering; wherein said lower melting component comprises silicon in an amount of 2 - 12 wt.%. forming a powdered mixture of a high-melt superalloy component or MCrAlY, where M comprises Fe, Ni and/or Co, and a lower-melting component comprising silicon, boron, hafnium or gold, and a binder material for said powdered mixture; applying said powdered mixture to a surface of said metal substrate at room temperature using an atomized spray to form a coating of substantially uniform thickness on said substrate surface; and heating said coated substrate surface under vacuum conditions to a temperature in the range of 1038 to 1246°C (1900°F to 2275°F) to form a liquid phase in which the higher melting powders become suspended and develop a metallurgical bond by liquid phase sintering; wherein said lower melting component comprises silicon in an amount of 2 - 12 wt.%.
An elevator hall door (100, 101, 102) comprising: a hall-side panel part constituting a surface of a hall side of an elevator and; a hoistway-side panel part (136, 137) constituting a surface of a hoistway-side of the elevator at a position separated from the hall-side panel part, further comprising: a combustible member arranged between the hall-side panel part and the hoistway-side panel part; and characterized by a receiving member (121, 122) arranged below the combustible member for receiving a falling object of the combustible member melted. a hall-side panel part constituting a surface of a hall side of an elevator and; a hoistway-side panel part (136, 137) constituting a surface of a hoistway-side of the elevator at a position separated from the hall-side panel part, further comprising: a combustible member arranged between the hall-side panel part and the hoistway-side panel part; and characterized by a receiving member (121, 122) arranged below the combustible member for receiving a falling object of the combustible member melted.
An organic electroluminescent device comprising a light-emitting layer B comprising: (i) a host material H B, which has a lowest unoccupied molecular orbital LUMO(H B) having an energy E LUMO (H B) and a highest occupied molecular orbital HOMO(H B) having an energy E HOMO (H B); (ii) a thermally activated delayed fluorescence (TADF) material E B, which has a lowermost excited singlet state energy level S1 E, a lowermost excited triplet state energy level T1 E, determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(E B) having an energy E LUMO (E B) and a highest occupied molecular orbital HOMO(E B) having an energy E HOMO (E B); and (iii) an depopulation agent S B, which has a lowermost excited singlet state energy level S1 S, a lowermost excited triplet state energy level T1 S, determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(S B) having an energy E LUMO (S B) and a highest occupied molecular orbital HOMO(S B) having an energy E HOMO (S B), wherein the depopulation agent S B is an organic TADF emitter or a combination of two or more organic TADF emitters, wherein E B emits thermally activated delayed fluorescence; and wherein the relations expressed by the following formulas to and either and or and apply: S1 S ≥ S1 E T 1 S ≥ 2.5 eV E LUMO E B < E LUMO H B 0.2 eV < E LUMO E B − E LUMO S B < 0.5 eV E LUMO E B > E LUMO H B 0.2 eV < E LUMO H B − E LUMO S B < 0.5 eV (i) a host material H B, which has a lowest unoccupied molecular orbital LUMO(H B) having an energy E LUMO (H B) and a highest occupied molecular orbital HOMO(H B) having an energy E HOMO (H B); (ii) a thermally activated delayed fluorescence (TADF) material E B, which has a lowermost excited singlet state energy level S1 E, a lowermost excited triplet state energy level T1 E, determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(E B) having an energy E LUMO (E B) and a highest occupied molecular orbital HOMO(E B) having an energy E HOMO (E B); and (iii) an depopulation agent S B, which has a lowermost excited singlet state energy level S1 S, a lowermost excited triplet state energy level T1 S, determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(S B) having an energy E LUMO (S B) and a highest occupied molecular orbital HOMO(S B) having an energy E HOMO (S B), wherein the depopulation agent S B is an organic TADF emitter or a combination of two or more organic TADF emitters, wherein E B emits thermally activated delayed fluorescence; and wherein the relations expressed by the following formulas to and either and or and apply: S1 S ≥ S1 E T 1 S ≥ 2.5 eV E LUMO E B < E LUMO H B 0.2 eV < E LUMO E B − E LUMO S B < 0.5 eV E LUMO E B > E LUMO H B 0.2 eV < E LUMO H B − E LUMO S B < 0.5 eV
An apparatus for accommodating copper foil, comprising: an accommodation body in which an accommodation space for accommodating copper foil wound on a core is provided; a first support portion coupled to the accommodation body to support one side of the core; a second support portion coupled to the accommodation body to support the other side of the core; a first damper portion coupled to the first support portion to be disposed between the first support portion and the one side of the core; and a second damper portion coupled to the second support portion to be disposed between the second support portion and the other side of the core, wherein the first damper portion comprises a first damper body coupled to the first support portion and a plurality of first damper protrusions protruding from the first damper body, characterised by a plurality of first damper grooves formed in the first damper portion, while the remaining part excluding parts in which the first damper grooves are formed is coupled to the first support portion, wherein the first damper protrusions are disposed to be spaced apart from each other in a first axial direction, and wherein the first damper grooves are disposed to be spaced apart from each other in a second axial direction, the second axial direction and the first axial direction being perpendicular to each other in one plane. an accommodation body in which an accommodation space for accommodating copper foil wound on a core is provided; a first support portion coupled to the accommodation body to support one side of the core; a second support portion coupled to the accommodation body to support the other side of the core; a first damper portion coupled to the first support portion to be disposed between the first support portion and the one side of the core; and a second damper portion coupled to the second support portion to be disposed between the second support portion and the other side of the core, wherein the first damper portion comprises a first damper body coupled to the first support portion and a plurality of first damper protrusions protruding from the first damper body, characterised by a plurality of first damper grooves formed in the first damper portion, while the remaining part excluding parts in which the first damper grooves are formed is coupled to the first support portion, wherein the first damper protrusions are disposed to be spaced apart from each other in a first axial direction, and wherein the first damper grooves are disposed to be spaced apart from each other in a second axial direction, the second axial direction and the first axial direction being perpendicular to each other in one plane.
A control system for operating a plurality of generator sets (12, 14, 16, 18), the control system comprising: a plurality of control units (52, 54, 56, 58) configured to control an operation of a respective one of the plurality of generator sets (12, 14, 16, 18); a data bus connected to the plurality of control units (52, 54, 56, 58) for transmitting data; a plurality of load bus segments (72, 74, 76, 78) configured to be connected to a respective one of the plurality of generator sets (12, 14, 16, 18); and at least one tie breaker (62, 64, 66, 68), each tie breaker (62, 64, 66, 68) being arranged between two load bus segments of the plurality of load bus segments (72, 74, 76, 78) to selectively connect the two load bus segments in a closed position and isolate the two load bus segments in an opened position, and each tie breaker (62, 64, 66, 68) being directly connected to at least one of the plurality of control units (52, 54, 56, 58), wherein the plurality of control units (52, 54, 56, 58) is further configured to: receive a signal from the directly connected tie breaker (62, 64, 66, 68) indicative of a position of the respective tie breaker (62, 64, 66, 68); and provide the signal to at least one further control unit (52, 54, 56, 58) of the plurality of control units via the data bus. a plurality of control units (52, 54, 56, 58) configured to control an operation of a respective one of the plurality of generator sets (12, 14, 16, 18); a data bus connected to the plurality of control units (52, 54, 56, 58) for transmitting data; a plurality of load bus segments (72, 74, 76, 78) configured to be connected to a respective one of the plurality of generator sets (12, 14, 16, 18); and at least one tie breaker (62, 64, 66, 68), each tie breaker (62, 64, 66, 68) being arranged between two load bus segments of the plurality of load bus segments (72, 74, 76, 78) to selectively connect the two load bus segments in a closed position and isolate the two load bus segments in an opened position, and each tie breaker (62, 64, 66, 68) being directly connected to at least one of the plurality of control units (52, 54, 56, 58), wherein the plurality of control units (52, 54, 56, 58) is further configured to: receive a signal from the directly connected tie breaker (62, 64, 66, 68) indicative of a position of the respective tie breaker (62, 64, 66, 68); and provide the signal to at least one further control unit (52, 54, 56, 58) of the plurality of control units via the data bus. receive a signal from the directly connected tie breaker (62, 64, 66, 68) indicative of a position of the respective tie breaker (62, 64, 66, 68); and provide the signal to at least one further control unit (52, 54, 56, 58) of the plurality of control units via the data bus.
A fusion protein comprising a) a binding protein comprising at least one binding site, wherein the binding site binds to an antigen associated with a target cell; and b) an IL-15 polypeptide, wherein the IL-15 polypeptide comprises at least one amino acid substitution at one or more positions corresponding to position(s) 92, 93, 94, 95, 96, 97, 98, 99, 100, 112, 113, 114, 115 and/or 116 of the amino acid sequence shown in SEQ ID NO:1 thereby having a reduced affinity for IL-15Rα compared to the affinity of wild-type IL-15 of SEQ ID NO: 1 (Uniprot number: P40933-1), wherein the IL-15 polypeptide binds to IL-2/IL-15Rβγ, wherein the binding protein is selected from the group consisting of an antibody, a divalent antibody fragment, a monovalent antibody fragment, or a proteinaceous binding molecule with antibody-like binding properties. a) a binding protein comprising at least one binding site, wherein the binding site binds to an antigen associated with a target cell; and b) an IL-15 polypeptide, wherein the IL-15 polypeptide comprises at least one amino acid substitution at one or more positions corresponding to position(s) 92, 93, 94, 95, 96, 97, 98, 99, 100, 112, 113, 114, 115 and/or 116 of the amino acid sequence shown in SEQ ID NO:1
A sensing element for use in a system for measuring fluid flow in turbulent blast environments, the sensing element comprising a sensor body and a first load cell arrangement connected to the sensor body, wherein the sensor body has a three dimensional shape which is rotationally symmetric about a longitudinal axis passing through the first load cell arrangement and the sensor body and wherein the first load cell arrangement is configured to measure the force exerted on the sensor body by fluid flow in at least an xy plane perpendicular to the longitudinal axis, wherein the sensor body comprises an outer surface comprising a texture which is selected to control the coefficient of drag of the sensor body, characterised in that the texture comprises a plurality of depressions.
A formulated composition comprising: a) polypropylene; b) a compatibilizer comprising a block composite; and, c) an elastomer wherein the composition exhibits an Izod strength in kJ/m 2 as measured by ASTM D256 or ISO180 at 0 °C or 23 °C that is at least 10% higher than that of the composition without (b); and exhibits a flexural modulus that is less than 10% reduced as compared to that of the composition without (b), wherein the block composite comprises a soft copolymer, a hard polymer and a block copolymer having a soft segment and a hard segment, wherein the hard segment of the block copolymer is the same composition as the hard polymer in the block composite and the soft segment of the block copolymer is the same composition as the soft copolymer of the block composite and the hard segment comprises 90 mole.% to 100 mole.% propylene. a) polypropylene; b) a compatibilizer comprising a block composite; and, c) an elastomer