mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a sporting good, wherein the sporting good is a sports shoe, a shinguard or a ball, the method comprising the following steps: a. Depositing a first material into a mold (105; 205; 305; 405); and b. Vibrating the mold (105; 205; 305; 405) to modify the distribution of the first material in the mold (105; 205; 305; 405); c. wherein vibrating the mold (105; 205; 305; 405) comprises a three-dimensional movement of the mold (105; 205; 305; 405) and oscillations occurring about an equilibrium point by means of a robot arm (215; 315; 415) to achieve a non-uniform distribution of the first material inside the mold. a. Depositing a first material into a mold (105; 205; 305; 405); and b. Vibrating the mold (105; 205; 305; 405) to modify the distribution of the first material in the mold (105; 205; 305; 405); c. wherein vibrating the mold (105; 205; 305; 405) comprises a three-dimensional movement of the mold (105; 205; 305; 405) and oscillations occurring about an equilibrium point by means of a robot arm (215; 315; 415) to achieve a non-uniform distribution of the first material inside the mold.
A process for making a release surface coated substrate comprising: delivering particles from at least one fluid jet to a metal surface to impregnate the metal surface with a fluoropolymer to form a first fluoropolymer layer, wherein the particles comprise an abrasive particle, a binder, and a first fluoropolymer, said particles being delivered to the metal surface with a gas and in the absence of liquids; coating the first fluoropolymer layer with a second fluoropolymer to form a second fluoropolymer layer and thereby forming a multilayered article; and sintering the multilayered article to form the release surface coated substrate. delivering particles from at least one fluid jet to a metal surface to impregnate the metal surface with a fluoropolymer to form a first fluoropolymer layer, wherein the particles comprise an abrasive particle, a binder, and a first fluoropolymer, said particles being delivered to the metal surface with a gas and in the absence of liquids; coating the first fluoropolymer layer with a second fluoropolymer to form a second fluoropolymer layer and thereby forming a multilayered article; and sintering the multilayered article to form the release surface coated substrate.
A legumain-targeting lipid comprising a hydrophobic lipid portion covalently bound to a legumain-binding moiety wherein the legumain-binding moiety comprises an aza-Asn Michael acceptor-type legumain inhibitor having a reactive portion represented by Formula:
Spacecraft comprising a main body and an attitude control system, said attitude control system comprising active attitude control means suitable for the 3-axis stabilisation of the attitude of said spacecraft, said attitude control system further comprising passive attitude control means suitable for generating, in cooperation with the Earth's magnetic field, a damping torque and comprising at least one passive damper, said at least one passive damper comprising an outer enclosure and an inner body that are configured such that: - said inner body is positioned inside said outer enclosure and is capable of moving in rotation inside said outer enclosure about at least one axis of rotation, - said outer enclosure comprises an inner surface and said inner body comprises an outer surface, said surfaces being separated by means of a viscous fluid, - said inner body is permanently magnetised, - said outer enclosure is fixed to the main body of said spacecraft for rotation therewith; the active attitude control means are at least one reaction wheel or at least one gyroscopic actuator. said attitude control system further comprising passive attitude control means suitable for generating, in cooperation with the Earth's magnetic field, a damping torque and comprising at least one passive damper, said at least one passive damper comprising an outer enclosure and an inner body that are configured such that: - said inner body is positioned inside said outer enclosure and is capable of moving in rotation inside said outer enclosure about at least one axis of rotation, - said outer enclosure comprises an inner surface and said inner body comprises an outer surface, said surfaces being separated by means of a viscous fluid, - said inner body is permanently magnetised, - said outer enclosure is fixed to the main body of said spacecraft for rotation therewith; - said inner body is positioned inside said outer enclosure and is capable of moving in rotation inside said outer enclosure about at least one axis of rotation, - said outer enclosure comprises an inner surface and said inner body comprises an outer surface, said surfaces being separated by means of a viscous fluid, - said inner body is permanently magnetised, - said outer enclosure is fixed to the main body of said spacecraft for rotation therewith; the active attitude control means are at least one reaction wheel or at least one gyroscopic actuator.
A niobium sintered body for an electrode of a capacitor, comprising at least one of niobium monoxide crystal in an amount of from 0.1 wt% to 20 wt% and a diniobium mononitride crystal in an amount of from 0.1 wt% to 20 wt%.
Hearing device, in particular an in-the-ear hearing device, having - a housing shell which encloses an electronics space in the manner of a cup, - a cover plate which is connected to the housing shell in order to close the electronics space, - an electronics frame which protrudes from the cover plate into the electronics space and by means of which an electrical and/or electronic component of the hearing device is retained reversibly at least in directions (x, y) parallel to the cover plate, and - at least one frame lock, fixed reversibly to the electronics frame, by means of which the electrical and/or electronic component is fixed to the electronics frame in a direction (z) perpendicular to the cover plate, characterized in that the electronics frame has a plurality of retaining fingers between which the electrical or electronic component is fixed in the directions (x, y) parallel to the cover plate, and wherein the frame lock is reversibly fixed on one of the retaining fingers at one end. - a housing shell which encloses an electronics space in the manner of a cup, - a cover plate which is connected to the housing shell in order to close the electronics space, - an electronics frame which protrudes from the cover plate into the electronics space and by means of which an electrical and/or electronic component of the hearing device is retained reversibly at least in directions (x, y) parallel to the cover plate, and - at least one frame lock, fixed reversibly to the electronics frame, by means of which the electrical and/or electronic component is fixed to the electronics frame in a direction (z) perpendicular to the cover plate, the electronics frame has a plurality of retaining fingers between which the electrical or electronic component is fixed in the directions (x, y) parallel to the cover plate, and wherein the frame lock is reversibly fixed on one of the retaining fingers at one end.
A housing assembly for a fan portion, comprising: a shroud having a face-wall portion to be mounted to a structure and an orifice wall extending from the face-wall portion and defining a passage through the orifice wall; and a substantially circular or annular diffuser defined by a plurality of diffuser members configured to be interconnected, wherein each of the plurality of diffuser members includes a plurality of slots on a first side and a plurality of tabs on a second side opposite the first side, wherein the diffuser is coupled to the shroud; characterised in that each of the plurality of diffuser members is substantially flat across a first major surface and a second major surface, where both the first major surface and the second major surface extend between the first side that includes the plurality of slots and the second side that includes the plurality of tabs, at least prior to being interconnected with the other diffuser members. a shroud having a face-wall portion to be mounted to a structure and an orifice wall extending from the face-wall portion and defining a passage through the orifice wall; and a substantially circular or annular diffuser defined by a plurality of diffuser members configured to be interconnected, wherein each of the plurality of diffuser members includes a plurality of slots on a first side and a plurality of tabs on a second side opposite the first side, wherein the diffuser is coupled to the shroud; characterised in that each of the plurality of diffuser members is substantially flat across a first major surface and a second major surface, where both the first major surface and the second major surface extend between the first side that includes the plurality of slots and the second side that includes the plurality of tabs, at least prior to being interconnected with the other diffuser members.
A method, comprising: receiving a command including a number of virtual addresses from a host (110, 272, 310) at a hybrid memory cube, HMC, that includes a logic base, a number of memory devices (120, 278-1, 278-2, 278-3,..., 278-B, 320) comprising a number of vaults, wherein: each of the number of vaults includes a partition (286-1, 286-2, 286-3,..., 286-B) from each of the number of memory devices (120, 278-1, 278-2, 278-3,..., 278-B, 320); and each of the number of vaults is functionally and operationally independent of other vaults; translating the number of virtual addresses to a number of physical addresses using a translation lookaside buffer, TLB, (191, 291, 391, 491) located on a switch of the logic base, wherein the switch is configured to provide availability of collective bandwidth from the memory device (120, 278-1, 278-2, 278-3,..., 278-B, 320) to the host (110, 272, 310); locating the physical addresses in the respective one of the number memory devices (120, 278-1, 278-2, 278-3,..., 278-B, 320); and using the collective bandwidth to access a vault of the number of vaults independently of others of the number of vaults. receiving a command including a number of virtual addresses from a host (110, 272, 310) at a hybrid memory cube, HMC, that includes a logic base, a number of memory devices (120, 278-1, 278-2, 278-3,..., 278-B, 320) comprising a number of vaults, wherein: each of the number of vaults includes a partition (286-1, 286-2, 286-3,..., 286-B) from each of the number of memory devices (120, 278-1, 278-2, 278-3,..., 278-B, 320); and each of the number of vaults is functionally and operationally independent of other vaults; each of the number of vaults includes a partition (286-1, 286-2, 286-3,..., 286-B) from each of the number of memory devices (120, 278-1, 278-2, 278-3,..., 278-B, 320); and each of the number of vaults is functionally and operationally independent of other vaults; translating the number of virtual addresses to a number of physical addresses using a translation lookaside buffer, TLB, (191, 291, 391, 491) located on a switch of the logic base, wherein the switch is configured to provide availability of collective bandwidth from the memory device (120, 278-1, 278-2, 278-3,..., 278-B, 320) to the host (110, 272, 310); locating the physical addresses in the respective one of the number memory devices (120, 278-1, 278-2, 278-3,..., 278-B, 320); and using the collective bandwidth to access a vault of the number of vaults independently of others of the number of vaults.
A Pirani vacuum gauge comprising a heat filament of metal wire, a support unit for supporting said heat filament and an elongated container for accommodating said heat filament and said support unit, wherein one end of said container is provided with a coupling end for coupling the gauge to a chamber to be measured for pressure and the other end of said container is provided with means for electrically connecting said heat filament and said support unit to an external control circuit whilst holding said heat filament and said support unit hermetically sealed from the atmosphere, and said heat filament and said support unit extend within said elongated container in a longitudinal direction from the one end to the other end of said container, CHARACTERIZED IN THAT said container is a rod body made of metal material, a first bore and a second bore longitudinally extend through the rod body, the first bore and second bore accommodating respectively said heat filament and said support unit, and the coupling end of said container to the chamber to be measured for pressure has a recess space dented toward the inside of said container and one end of said heat filament and one end of said support unit are joined in the recess space.
An optical device (201, 301a-301c) for modifying a light distribution, the optical device being made of transparent material and comprising a lens (205, 305) having a light ingress surface (206, 306a-306c) and a light egress surface (207, 307a-307b), wherein the light ingress surface comprises one or more V-shaped projections on a center area (208, 308a-308c) of the light ingress surface and the light ingress surface is free from corners on areas (209, 309a-309c) outside the center area, each V-shaped projection being shaped so that a surface penetration takes place when a light beam arrives at one of side surfaces of the V-shaped projection and a total internal reflection takes place in response to a situation in which the light beam arrives at another one of the side surfaces of the V-shaped projection under consideration, characterized in that a surface area of the center area (208, 308a-308c) of the light ingress surface of the lens is at most 30 % of a surface area of the areas (209, 309a-309c) outside the center area.
A high-power aluminum-air battery system, comprising single aluminum-air batteries, wherein at least two of the single aluminum-air batteries are electrically connected in series or parallel to form a battery pack, bottom side of the battery pack provided with two liquid flow handling chambers (1 and 2) and top side of the battery pack provided with liquid distributing apparatus; wherein the single aluminum-air batteries are interlinked with the liquid flow handling chambers (1 and 2) via respective liquid outlet pipes, the liquid flow handling chambers (1 and 2) are interlinked with a pump liquid chamber via their respective liquid transmission pipes (11 and 21), the pump liquid chamber is interlinked with a liquid flow pump via a liquid sucking pipe, a liquid delivery pipe of the liquid flow pump is interlinked with the liquid distributing apparatus, and the liquid distributing apparatus interlinked with the single aluminum-air batteries under it via liquid inlet pipes; wherein said battery system is adapted to perform the following when the battery system is running: to adjust switches of the liquid outlet pipes which are connected with the liquid flow handling chambers (1 and 2) respectively; to control electrolyte of the battery pack to flow into one of the two liquid flow handling chambers (1 and 2) alternately; and to circulate the electrolyte among one of the liquid flow handling chambers (1 or 2), the pump liquid chamber, the liquid distributing apparatus and the battery pack, when the other liquid flow handling chamber (2 or 1) is in the process of electrolyte standing and sediment sedimentation treatment; wherein electric energy output ends (40 + and 40 -) at the outer side of the battery pack are respectively interlinked with air electrode collector plates and aluminum alloy electrode collector plates of the battery pack, and are adapted to supply power outward.
A superconducting cell array logic circuit system comprising a plurality of superconducting cells (52, 102, 152) arranged in an array (12, 50, 100) of at least one row and at least one column, the superconducting cell array logic circuit system being configured to implement a logic operation on at least one logic input signal (DATA I) received via at least one respective input (54, 104) associated with the respective at least one row to provide at least one logic output signal (DATA O) on at least one respective output (56, 106) associated with the at least one column based on selective coupling of the at least one input to the at least one output via the plurality of superconducting cells, wherein the selective coupling sets a logic operation of the superconducting cell array logic circuit system, characterized in that the selective coupling of the at least one logic input signal to the at least one logic output signal via the plurality of superconducting cells is field-programmable, wherein each of the plurality of superconducting cells (52, 102, 152) comprises a superconducting quantum interference device, SQUID, comprising at least one Josephson junction (JJ 1, JJ 2) that is coupled to a respective one of the at least one output (56, 106, 160), such that the at least one Josephson junction is configured to trigger to provide the logic output signal (DATA O) in response to the logic input signal (DATA I) based on the respective one of the at least one input (54, 104, 158) being coupled to the respective one of the at least one output, and wherein each of the plurality of superconducting cells (52, 102, 152, 250) further comprises a hysteretic magnetic Josephson junction device, HMJJD, configured to store one of a first magnetic state and a second magnetic state in response to at least one programming signal, wherein the HMJJD provides coupling between the respective one of the at least one input (54, 104, 158, 254) and the respective one of the at least one output (56, 106, 160, 258) in the first magnetic state and provides non-coupling between the respective one of the at least one input and the respective one of the at least one output in the second magnetic state.
An apparatus for monitoring cargo conditions in a shipping container, comprising: a shipping container; at least one environmental sensor to monitor at least one environmental parameter associated with the cargo; a controller to log a plurality of readings from each of the at least one environmental sensors; a sensor interface to facilitate communication between the at least one environmental sensor and the controller; wherein the sensor interface is a wired sensor interface; and wherein the sensor interface includes an embedded interface portion associated with the shipping container and a temporary interface portion associated with the at least one environmental sensor; characterised in that the sensor interface includes at least one plug termination associated with the embedded interface portion and the temporary interface portion; and the at least one plug termination is disposed on or in a floor of the shipping container. a shipping container; at least one environmental sensor to monitor at least one environmental parameter associated with the cargo; a controller to log a plurality of readings from each of the at least one environmental sensors; a sensor interface to facilitate communication between the at least one environmental sensor and the controller; wherein the sensor interface is a wired sensor interface; and wherein the sensor interface includes an embedded interface portion associated with the shipping container and a temporary interface portion associated with the at least one environmental sensor; characterised in that the sensor interface includes at least one plug termination associated with the embedded interface portion and the temporary interface portion; and the at least one plug termination is disposed on or in a floor of the shipping container.
An apparatus for resolving individual signals (300, 870, 872, 1330) in detector output data, each signal (300, 870, 872, 1330) being a pulse corresponding to an individual detection event occurring in a detector having a pulse shape with a rising edge and a falling edge above a baseline and the detector output data originating from the detector, the apparatus comprising: an analog front end configured to perform analog to digital conversion of the detector output data to obtain digitized detector output data; and a processing circuit configured to: transform the digitized detector output data such that the rising edge of each pulse is compressed and the falling edge of each pulse is extended so as to produce digital stepped data comprising a transformed stream of samples approximating an ideal step function and, after the transformation, perform pulse pile-up recovery and detect each signal (300, 870, 872, 1330) at least partially based on the digital stepped data; and estimate one or more of a signal energy or a time of arrival of each detected signal (300, 870, 872, 1330) at least partially based on the digital stepped data. an analog front end configured to perform analog to digital conversion of the detector output data to obtain digitized detector output data; and a processing circuit configured to: transform the digitized detector output data such that the rising edge of each pulse is compressed and the falling edge of each pulse is extended so as to produce digital stepped data comprising a transformed stream of samples approximating an ideal step function and, after the transformation, perform pulse pile-up recovery and detect each signal (300, 870, 872, 1330) at least partially based on the digital stepped data; and estimate one or more of a signal energy or a time of arrival of each detected signal (300, 870, 872, 1330) at least partially based on the digital stepped data. transform the digitized detector output data such that the rising edge of each pulse is compressed and the falling edge of each pulse is extended so as to produce digital stepped data comprising a transformed stream of samples approximating an ideal step function and, after the transformation, perform pulse pile-up recovery and detect each signal (300, 870, 872, 1330) at least partially based on the digital stepped data; and estimate one or more of a signal energy or a time of arrival of each detected signal (300, 870, 872, 1330) at least partially based on the digital stepped data.