mhurhangee/ep-ind-claims huggingface dataset:
Apparatus (100, 100') for processing dough comprising a filling machine for the delivery of dough, that includes a filling hopper for receiving the dough and a delivery pump for delivery of the dough, wherein the filling machine (100, 100') is coupled to a dough handling unit (1, 1'), that is arranged downstream of the delivery pump. for handling dough, comprising a housing (8, 8', 8"), a dough inlet (10, 10') for introducing dough into the housing (8, 8', 8"), a dough outlet (12, 12') for discharge of the dough from the housing (8, 8', 8"), and a handling chamber for handling the dough, that is arranged within the housing (8, 8', 8") along a portion between the inlet and the outlet and is substantially closed off relative to the surroundings, and a portioning device (110, 110') for subdividing the dough passing the processing section (116, 116') into individual portions or into a plurality of same-size mass flows, wherein arranged in the handling chamber (2, 2') is a dough structuring portion (4, 4', 4") having a nozzle (6, 6', 6") which reduces the flow cross-section for structuring of the dough, and downstream of the nozzle (6, 6', 6") the flow cross-section in the dough structuring portion is enlarged again in relation to the reduced flow cross-section in the region of the nozzle (6, 6', 6"), characterised in that the dough handling unit (1, 1') is arranged immediately after the portioning device (110, 110'). a filling machine for the delivery of dough, that includes a filling hopper for receiving the dough and a delivery pump for delivery of the dough, wherein the filling machine (100, 100') is coupled to a dough handling unit (1, 1'), that is arranged downstream of the delivery pump. for handling dough, comprising a housing (8, 8', 8"), a dough inlet (10, 10') for introducing dough into the housing (8, 8', 8"), a dough outlet (12, 12') for discharge of the dough from the housing (8, 8', 8"), and a handling chamber for handling the dough, that is arranged within the housing (8, 8', 8") along a portion between the inlet and the outlet and is substantially closed off relative to the surroundings, and a portioning device (110, 110') for subdividing the dough passing the processing section (116, 116') into individual portions or into a plurality of same-size mass flows, wherein arranged in the handling chamber (2, 2') is a dough structuring portion (4, 4', 4") having a nozzle (6, 6', 6") which reduces the flow cross-section for structuring of the dough, and downstream of the nozzle (6, 6', 6") the flow cross-section in the dough structuring portion is enlarged again in relation to the reduced flow cross-section in the region of the nozzle (6, 6', 6"), characterised in that the dough handling unit (1, 1') is arranged immediately after the portioning device (110, 110').
Composition, in particular for dyeing and/or lightening keratin fibres, in particular human keratin fibres such as the hair, comprising: a) one or more guanidine salts, b) one or more alkanolamine(s), c) ammonium hydroxide and d) at least two different polyols, in a total content greater than or equal to 5% by weight relative to the total weight of the composition, and e) optionally one or more colouring agents. a) one or more guanidine salts, b) one or more alkanolamine(s), c) ammonium hydroxide and d) at least two different polyols, in a total content greater than or equal to 5% by weight relative to the total weight of the composition, and e) optionally one or more colouring agents.
A vehicle handle device configured to operate a door lock device via a cable device (60, 70), the vehicle handle device comprising: an operation member connected to the cable device (60, 70); and a handle case housing the operation member, wherein the handle case comprises: a cable fixing base in which the cable device (60, 70) is arranged; a cap portion configured to fix the cable device (60, 70) to the cable fixing base; and a hinge portion configured to engage an engaging piece with an engaged piece, and rotatably connect the cap portion to the cable fixing base, wherein the engaging piece is provided on one of, the cable fixing base and the cap portion, and wherein the engaged piece is provided on the other one of, the cable fixing base and the cap portion characterized in that the handle case is formed of an integrally molded product obtained by integrally molding the cable fixing base and the cap portion via a connecting piece in a posture in which the engaged piece and the engaging piece face each other, and the connecting piece includes a breaking portion configured to be broken when an external force is applied to the cap portion. an operation member connected to the cable device (60, 70); and a handle case housing the operation member, wherein the handle case comprises: a cable fixing base in which the cable device (60, 70) is arranged; a cap portion configured to fix the cable device (60, 70) to the cable fixing base; and a hinge portion configured to engage an engaging piece with an engaged piece, and rotatably connect the cap portion to the cable fixing base, wherein the engaging piece is provided on one of, the cable fixing base and the cap portion, and wherein the engaged piece is provided on the other one of, the cable fixing base and the cap portion a cable fixing base in which the cable device (60, 70) is arranged; a cap portion configured to fix the cable device (60, 70) to the cable fixing base; and a hinge portion configured to engage an engaging piece with an engaged piece, and rotatably connect the cap portion to the cable fixing base, wherein the engaging piece is provided on one of, the cable fixing base and the cap portion, and wherein the engaged piece is provided on the other one of, the cable fixing base and the cap portion characterized in that the handle case is formed of an integrally molded product obtained by integrally molding the cable fixing base and the cap portion via a connecting piece in a posture in which the engaged piece and the engaging piece face each other, and the connecting piece includes a breaking portion configured to be broken when an external force is applied to the cap portion.
A disposable photometric measurement tip comprising; a polymer tip (d), the polymer tip having; a capillary filling channel (g), the capillary filling channel having an opening (h) at a distal end of the polymer tip, a distal end of the capillary filling channel having a diameter in the range 1μm to 500μm to provide a capillary filling mechanism, a wave guide channel acting as an optical input coupling (b) and a wave guide channel acting as an optical output coupling (c), each of the wave guide channels having a separate opening at a proximal end of the polymer tip, the waveguide channels being adapted to function as waveguide when they are filled with a sample, wherein the capillary filling channel, the wave guide channel acting as an optical input coupling and the wave guide channel acting as an optical output coupling are connected to each other.
An artificial bone plate unit comprising: a plate body having two main surfaces; a peripheral surface connected between the two main surfaces; multiple connecting pins formed on the plate body and arranged along the peripheral surface on the plate body; multiple connecting holes formed in the plate body and arranged along the peripheral surface in the plate body; the connecting holes corresponding in shape to the connecting pins; characterized in that multiple drug cavities are formed in the artificial bone plate unit; and multiple drug-releasing openings are formed on the artificial bone plate unit; each of the drug-releasing openings is connected to a respective one of the drug cavities; a maximum area of a cross section of each of the drug cavities is greater than an area of a corresponding one of the drug-releasing openings; and a normal direction of the cross section of each of the drug cavities is parallel to an opening direction of the corresponding drug-releasing opening. a plate body having two main surfaces; a peripheral surface connected between the two main surfaces; two main surfaces; a peripheral surface connected between the two main surfaces; multiple connecting pins formed on the plate body and arranged along the peripheral surface on the plate body; multiple connecting holes formed in the plate body and arranged along the peripheral surface in the plate body; the connecting holes corresponding in shape to the connecting pins; characterized in that multiple drug cavities are formed in the artificial bone plate unit; and multiple drug-releasing openings are formed on the artificial bone plate unit; each of the drug-releasing openings is connected to a respective one of the drug cavities; a maximum area of a cross section of each of the drug cavities is greater than an area of a corresponding one of the drug-releasing openings; and a normal direction of the cross section of each of the drug cavities is parallel to an opening direction of the corresponding drug-releasing opening.
A method of provisioning a software application on edge devices (104A-N) in an Internet-of-Things, Iot, environment, comprising: generating, by a processor, a plurality of simulation instances (402A-N) capable of simulating behavior of the software application on one or more edge devices (104A-N) in the IoT environment, wherein said each simulation instance (402A-N) is configured with a unique resource configuration (404A-N); processing the software application on said each simulation instance (402A-N) using data from a plant; and computing an optimum resource configuration associated with the software application based on processing of the software application on the simulation instances (402A-N), wherein computing the optimum resource configuration associated with the software application comprises: determining at least one simulation instance from the plurality of simulation instances (402A-N) on which the behavior of the software application is satisfactory; and determining the unique resource configuration associated with the determined simulation instance, wherein the unique resource configuration is the optimum resource configuration which indicates least resources required for executing the software application on the one or more edge devices (104A-N). generating, by a processor, a plurality of simulation instances (402A-N) capable of simulating behavior of the software application on one or more edge devices (104A-N) in the IoT environment, wherein said each simulation instance (402A-N) is configured with a unique resource configuration (404A-N); processing the software application on said each simulation instance (402A-N) using data from a plant; and computing an optimum resource configuration associated with the software application based on processing of the software application on the simulation instances (402A-N), wherein computing the optimum resource configuration associated with the software application comprises: determining at least one simulation instance from the plurality of simulation instances (402A-N) on which the behavior of the software application is satisfactory; and determining the unique resource configuration associated with the determined simulation instance, wherein the unique resource configuration is the optimum resource configuration which indicates least resources required for executing the software application on the one or more edge devices (104A-N). determining at least one simulation instance from the plurality of simulation instances (402A-N) on which the behavior of the software application is satisfactory; and determining the unique resource configuration associated with the determined simulation instance, wherein the unique resource configuration is the optimum resource configuration which indicates least resources required for executing the software application on the one or more edge devices (104A-N).
An assembly comprising: a double feed compressor wheel that comprises a rotational axis, a first face, an opposing second face and an outer circumferential edge disposed between the first and second faces (341, 343); a compressor wheel shroud wall; a diffuser wall disposed a radial distance (Δr g + Δr h) from the outer circumferential edge and extending between the compressor wheel shroud wall and a volute wall; a disc, mounted an axial distance from the diffuser wall, wherein the disc comprises a central axis; a leading edge disposed at an inner radius (r di) about the central axis; a trailing edge disposed at an outer radius (r do) about the central axis; an upper surface disposed between the leading edge and the trailing edge; a lower surface disposed between the leading edge and the trailing edge; and one or more mounting features configured to mount the disc an axial distance from the diffuser wall in the diffuser section, characterised in that the one or more mounting features mount the leading edge a radial distance (Δr h) inwardly from the diffuser wall to define a gap distance (Δr g) to the outer circumferential edge of the compressor wheel and mount the trailing edge in the diffuser section to define a mixing boundary (r m) for mixing of air pressurized by the first face and air pressurized by the second face. a double feed compressor wheel that comprises a rotational axis, a first face, an opposing second face and an outer circumferential edge disposed between the first and second faces (341, 343); a compressor wheel shroud wall; a diffuser wall disposed a radial distance (Δr g + Δr h) from the outer circumferential edge and extending between the compressor wheel shroud wall and a volute wall; a disc, mounted an axial distance from the diffuser wall, wherein the disc comprises a central axis; a leading edge disposed at an inner radius (r di) about the central axis; a trailing edge disposed at an outer radius (r do) about the central axis; an upper surface disposed between the leading edge and the trailing edge; a lower surface disposed between the leading edge and the trailing edge; and a central axis; a leading edge disposed at an inner radius (r di) about the central axis; a trailing edge disposed at an outer radius (r do) about the central axis; an upper surface disposed between the leading edge and the trailing edge; a lower surface disposed between the leading edge and the trailing edge; and one or more mounting features configured to mount the disc an axial distance from the diffuser wall in the diffuser section, characterised in that the one or more mounting features mount the leading edge a radial distance (Δr h) inwardly from the diffuser wall to define a gap distance (Δr g) to the outer circumferential edge of the compressor wheel and mount the trailing edge in the diffuser section to define a mixing boundary (r m) for mixing of air pressurized by the first face and air pressurized by the second face.
An apparatus to ablate vascular tissue, the apparatus comprising, a pump; a nozzle for immersion in a liquid, the nozzle being coupled to the pump; circuitry coupled to the pump and the nozzle to cause a jet with a plurality of shedding pulses to be released from the nozzle into the liquid, the apparatus further comprising: a processor comprising instructions to treat the vascular tissue with the nozzle, the processor coupled to a linkage to move the nozzle in response to the instructions, characterized in that the processor comprises instructions to remove the tissue with a tissue removal profile, RP, with the nozzle positioned at a distance no more than a threshold transition distance for selective tissue removal from the profile. a pump; a nozzle for immersion in a liquid, the nozzle being coupled to the pump; circuitry coupled to the pump and the nozzle to cause a jet with a plurality of shedding pulses to be released from the nozzle into the liquid, the apparatus further comprising: a processor comprising instructions to treat the vascular tissue with the nozzle, the processor coupled to a linkage to move the nozzle in response to the instructions, characterized in that the processor comprises instructions to remove the tissue with a tissue removal profile, RP, with the nozzle positioned at a distance no more than a threshold transition distance for selective tissue removal from the profile. a processor comprising instructions to treat the vascular tissue with the nozzle, the processor coupled to a linkage to move the nozzle in response to the instructions, characterized in that the processor comprises instructions to remove the tissue with a tissue removal profile, RP, with the nozzle positioned at a distance no more than a threshold transition distance for selective tissue removal from the profile.
Extrusion device comprising an extruder unit, in which an extrudate is conveyed in a conveying direction, wherein the extrudate exits from an extruder die of the extruder unit, and comprising a hot air unit with a hot air nozzle, which is arranged such that the hot air exits beside the extruder die, wherein the hot air nozzle or the hot air unit on the extrusion device is arranged rotatable about the longitudinal axis of the conveying direction of the extruder unit, characterised in that, for the rotational movement of the hot air nozzle or the hot air unit about the longitudinal axis of the conveying direction, at least one rotary drive device is provided, as well as gearing means (17, 18), arranged between the rotary drive and the rotatable hot air nozzle or hot air unit.
A chip assembly configuration, comprising: a substrate, having a first surface and a second surface on an opposite side of the substrate from the first surface, with first connectors disposed on the first surface and second connectors disposed on the second surface, wherein the first connectors and the second connectors are electrically coupled by interconnectors through the substrate; wherein a given interconnector includes two vias electrically coupled by a signal line that includes a region approximately parallel to one of the first surface and the second surface, wherein the vias extend partially through the substrate, and wherein a length of the region is less than or equal to 1 mm; an integrated circuit positioned adjacent to the first surface and electrically coupled to the first connectors; and a conversion mechanism (220-1, 220-2) positioned adjacent to the second surface and electrically coupled to the second connectors, wherein the conversion mechanism is configured to convert electrical signals from the integrated circuit into corresponding first optical signals and to convert second optical signals to the integrated circuit into corresponding second electrical signals; and wherein the first optical signals and the second optical signals are communicated in the chip assembly configuration using an optical interconnect (224-1, 224-2). a substrate, having a first surface and a second surface on an opposite side of the substrate from the first surface, with first connectors disposed on the first surface and second connectors disposed on the second surface, wherein the first connectors and the second connectors are electrically coupled by interconnectors through the substrate; wherein a given interconnector includes two vias electrically coupled by a signal line that includes a region approximately parallel to one of the first surface and the second surface, wherein the vias extend partially through the substrate, and wherein a length of the region is less than or equal to 1 mm; an integrated circuit positioned adjacent to the first surface and electrically coupled to the first connectors; and a conversion mechanism (220-1, 220-2) positioned adjacent to the second surface and electrically coupled to the second connectors, wherein the conversion mechanism is configured to convert electrical signals from the integrated circuit into corresponding first optical signals and to convert second optical signals to the integrated circuit into corresponding second electrical signals; and wherein the first optical signals and the second optical signals are communicated in the chip assembly configuration using an optical interconnect (224-1, 224-2).
A method (1100, 1200) implemented by a wireless transmit/receive unit, WTRU, the method comprising: transmitting (1110, 1210) a first request message for requesting a list of applications available to the WTRU in a multi-access edge computing, MEC, system, wherein the MEC system comprises a reliable and available wireless, RAW, network; receiving (1120, 1220) a first response message indicating the list of available applications and, for at least one application of the list of applications, one or more first reliability and availability parameters supported by the MEC system; transmitting (1130, 1230) a second request message indicating one or more second reliability and availability parameters based on the one or more first reliability and availability parameters, wherein the one or more second reliability and availability parameters are requested to be met, for the at least one application, by both the RAW network and a MEC host of the MEC system, wherein the at least one application is to be instantiated on the MEC host; and receiving a second response message indicating one or more third reliability and availability parameters provided over the RAW network between the WTRU and the MEC host. transmitting (1110, 1210) a first request message for requesting a list of applications available to the WTRU in a multi-access edge computing, MEC, system, wherein the MEC system comprises a reliable and available wireless, RAW, network; receiving (1120, 1220) a first response message indicating the list of available applications and, for at least one application of the list of applications, one or more first reliability and availability parameters supported by the MEC system; transmitting (1130, 1230) a second request message indicating one or more second reliability and availability parameters based on the one or more first reliability and availability parameters, wherein the one or more second reliability and availability parameters are requested to be met, for the at least one application, by both the RAW network and a MEC host of the MEC system, wherein the at least one application is to be instantiated on the MEC host; and receiving a second response message indicating one or more third reliability and availability parameters provided over the RAW network between the WTRU and the MEC host.
A bite splint of a thermoplastic material to prevent snoring and obstructive sleep apnea, which bite splint allows moving the lower jaw relative to the upper jaw into a slightly forward shifted position, comprising a lower and an upper side, each of which defining a shaping bite channel (4, 5) that is open towards the lower or upper jaw, respectively, wherein the thermoplastic material can be molded to model the human lower and upper jaw in a brace-like manner, wherein the inner surface of the bite channels comprises a structure which improves the position of the teeth in the bite channels and their adhesion in the thermoplastic material, characterized in that the inner bottom of the two bite channels comprises one or more flat raised areas with a substantially circular bottom perimeter in the region of the canines and molars and in that the inner side walls of the two bite channels comprise one or more narrowed sections in the form of vertical webs (14, 15).