mhurhangee/ep-ind-claims huggingface dataset:
A plug-in housing module for forming an especially explosion-proof switchgear/distribution panel comprising a number of plug-in points, wherein said plug-in housing module is configured such that it contacts by occupying its plugged-in position electrical connection devices of the switchgear/distribution panel and is detachably fixed to carrier rails or the like of a frame of the switchgear/distribution panel in the plugged-in position by a locking element, which plug-in housing module comprises at least one switching device which is accessible from the outside for switching between a locking position and a release position (8, 9) and, in release position, the plug-in housing module can be moved out of its plugged-in position into a separation position, wherein in the separation position, the contact with the electrical connection device is interrupted, while maintaining a flameproof mechanical connection, and the separation position is determined in relation to the plug-in point by means of a mechanical locking device, wherein once the locking device has been released, the plug-in housing module can be fully removed from its plug-in point, characterized in that the switching device comprises a switching shaft connected to a handle, by means of which said locking element is movable between locking and unlocking position (21, 20), wherein the contact to the connection device is separated in separation position, maintaining a flameproof mechanical connection.
Method for monitoring or checking the processing of a workpiece, comprising: - detecting a first radiation component of a thermal radiation emitted from at least one surface element in a processing area of the workpiece with a first polarization of the thermal radiation, - detecting a second radiation component of a thermal radiation emitted from the at least one surface element in the processing area of the workpiece with a second polarization of the thermal radiation different from the first polarization, and - identifying data values of a surface structure of the workpiece at the at least one surface element from the detected first and second radiation components. - detecting a first radiation component of a thermal radiation emitted from at least one surface element in a processing area of the workpiece with a first polarization of the thermal radiation, - detecting a second radiation component of a thermal radiation emitted from the at least one surface element in the processing area of the workpiece with a second polarization of the thermal radiation different from the first polarization, and - identifying data values of a surface structure of the workpiece at the at least one surface element from the detected first and second radiation components.
A producing method for bead-like hollow particles for use in a friction material, the method comprising: spraying and drying a suspension of a particulate biological material and a particulate metal oxide by a two-fluid nozzle spray dryer, to obtain a powder composed of the particulate biological material as a core and a layer of the particulate metal oxide as a shell, wherein a mixing ratio in the suspension is defined by dividing the particulate biological material by the particulate metal oxide is 1/0.5 to 1/2 on the basis of solid mass weight; and heating the obtained powder to decompose the particulate biological material as the core and to sinter the layer of the particulate metal oxide so as to form the bead-like hollow particles comprising particles composed of the metal oxide as a main component and having at least one of a through hole and non-through hole in a surface. spraying and drying a suspension of a particulate biological material and a particulate metal oxide by a two-fluid nozzle spray dryer, to obtain a powder composed of the particulate biological material as a core and a layer of the particulate metal oxide as a shell, wherein a mixing ratio in the suspension is defined by dividing the particulate biological material by the particulate metal oxide is 1/0.5 to 1/2 on the basis of solid mass weight; and heating the obtained powder to decompose the particulate biological material as the core and to sinter the layer of the particulate metal oxide so as to form the bead-like hollow particles comprising particles composed of the metal oxide as a main component and having at least one of a through hole and non-through hole in a surface.
A device for use with ultrasound imaging procedures comprising: a medical device for insertion into a body, the medical device having a housing defining a chamber in which at least part of an echogenic marker is placed, the marker including a paddle connected to a shaft having an axis wherein the shaft and the paddle are rotatable about the axis and a first portion of the paddle is offset to one side of the shaft and a second portion of the paddle is offset to the other side of the shaft, wherein when positioned within the body and when driven to rotate at a first rotation rate the marker produces a Doppler shift which is observable through ultrasound imaging procedures when the marker is subjected to ultrasound waves, wherein the housing is wholly or partially echolucent and the paddle is constructed of an echogenic material. a medical device for insertion into a body, the medical device having a housing defining a chamber in which at least part of an echogenic marker is placed, the marker including a paddle connected to a shaft having an axis wherein the shaft and the paddle are rotatable about the axis and a first portion of the paddle is offset to one side of the shaft and a second portion of the paddle is offset to the other side of the shaft, wherein when positioned within the body and when driven to rotate at a first rotation rate the marker produces a Doppler shift which is observable through ultrasound imaging procedures when the marker is subjected to ultrasound waves, wherein the housing is wholly or partially echolucent and the paddle is constructed of an echogenic material.
A server rack, comprising at least one server component (51N, 251N) and an asset tag (99, 100, 200) externally attached to the at least one server component (51N, 251N), wherein the asset tag (99, 100, 200) comprises: a support bar (102, 202) rotatable between at least two positions, wherein the support bar (102, 202) is positioned such that the server component (51N, 251N) is removable from the server rack without removing the asset tag (99, 100, 200); an actuator (103, 203) connected to the support bar (102, 202); and an interface (101, 201) supported by the support bar (102, 202), wherein the interface (101, 201) is configured to provide an indicator regarding the location and status of the server component (51N, 251N), wherein the asset tag (99, 100, 200) is characterized in that the actuator (103, 203) is configured to rotate the support bar (102, 202) between a first position of the support bar (102, 202) configuring the interface (101, 201) to be flush against the server component (51N, 251N), and a second position of the support bar (102, 202) configuring the interface (101, 201) to be perpendicular to the server component (51N, 251N). a support bar (102, 202) rotatable between at least two positions, wherein the support bar (102, 202) is positioned such that the server component (51N, 251N) is removable from the server rack without removing the asset tag (99, 100, 200); an actuator (103, 203) connected to the support bar (102, 202); and an interface (101, 201) supported by the support bar (102, 202), wherein the interface (101, 201) is configured to provide an indicator regarding the location and status of the server component (51N, 251N), wherein the asset tag (99, 100, 200) is characterized in that the actuator (103, 203) is configured to rotate the support bar (102, 202) between a first position of the support bar (102, 202) configuring the interface (101, 201) to be flush against the server component (51N, 251N), and a second position of the support bar (102, 202) configuring the interface (101, 201) to be perpendicular to the server component (51N, 251N).
A method of completing an oil or gas well completion using a perforation gun comprising a plurality of shaped charge perforators, wherein at least two of said shaped charge perforators (30, 31) are arranged at an angle, and are initiated to produce at least two cutting jets (32, 33) which are convergent, characterised wherein the at least two cutting jets (32, 33) collide within the formation, wherein at least two of said shaped charge perforators (30, 31) are configured such that in use the cutting jets (32, 33), produced by said at least two perforators are convergent, and intersect at a point substantially at the maximum extent of said cutting jets to cause a large cavity at the point of collision, and wherein the shaped charge perforators are located in a helical or double helical arrangement in the perforation gun.
Fuel feed device on a fuel injector, which fuel feed device comprises a pressure connector which is connected to an injector housing and which has a passage bore for fuel, which passage bore runs in a longitudinal direction of the pressure connector and opens out, on the side of the injector housing, in the region of a face side of the pressure connector and, in the installed state, is arranged in alignment with a supply duct which runs in the injector housing, wherein the injector housing has a receptacle, formed in a manner of a blind bore, for that end region of the pressure connector which faces toward the injector housing, and wherein the pressure connector is connected in pressure-tight fashion to the injector housing with the interposition of a sealing element, which has a passage opening for the fuel, against a base of the receptacle, wherein the sealing element is formed as a seal disk with an undulating form in a radial direction, characterized in that, in the assembled state, a radial gap is formed between the inner diameter of the receptacle and the outer diameter of the sealing element, and in that, in the installed state of the pressure connector in the receptacle, in which said pressure connector assumes its axial end position, the radial gap is zero at least in regions.
An apparatus for wireless communication at a user equipment, UE, comprising: a memory; and one or more processors, coupled to the memory, configured to: receive information indicating whether a reference signal is associated with a full-duplex operation; receive the reference signal; and transmit feedback for the reference signal based at least in part on the reference signal and the information indicating whether the reference signal is associated with the full-duplex operation, wherein the information indicating whether the reference signal is associated with the full-duplex operation indicates that the reference signal is for full-duplex beam selection, and wherein the one or more processors are further configured to: receive a set of reference signals on a set of beams; determine that the set of beams are suitable for full-duplex communication by the UE; and transmit information indicating a set of reference signal identifiers corresponding to the set of reference signals based at least in part on the set of beams being suitable for full-duplex communication by the UE. a memory; and one or more processors, coupled to the memory, configured to: receive information indicating whether a reference signal is associated with a full-duplex operation; receive the reference signal; and transmit feedback for the reference signal based at least in part on the reference signal and the information indicating whether the reference signal is associated with the full-duplex operation, wherein the information indicating whether the reference signal is associated with the full-duplex operation indicates that the reference signal is for full-duplex beam selection, and wherein the one or more processors are further configured to: receive a set of reference signals on a set of beams; determine that the set of beams are suitable for full-duplex communication by the UE; and transmit information indicating a set of reference signal identifiers corresponding to the set of reference signals based at least in part on the set of beams being suitable for full-duplex communication by the UE. receive information indicating whether a reference signal is associated with a full-duplex operation; receive the reference signal; and transmit feedback for the reference signal based at least in part on the reference signal and the information indicating whether the reference signal is associated with the full-duplex operation, wherein the information indicating whether the reference signal is associated with the full-duplex operation indicates that the reference signal is for full-duplex beam selection, and wherein the one or more processors are further configured to: receive a set of reference signals on a set of beams; determine that the set of beams are suitable for full-duplex communication by the UE; and receive a set of reference signals on a set of beams; determine that the set of beams are suitable for full-duplex communication by the UE; and transmit information indicating a set of reference signal identifiers corresponding to the set of reference signals based at least in part on the set of beams being suitable for full-duplex communication by the UE.
A contact lens package 1 for storage of contact lenses 20, the package comprising (i) a cavity 4 for storing a contact lens 20 and (ii) charging circuitry 3 configured to charge an electronic device forming part of a contact lens 20 stored in said cavity 4, wherein the charging circuity 3 comprises a power source 6 that is a battery or other element arranged to retain an electrical charge, and wherein the charging circuitry 3 comprises a switch 12 arranged to control the operation of the charging circuity, CHARACTERIZED IN THAT: the package is a blister package for storage of contact lenses prior to first use of the lens, and wherein the switch 12 comprises a detachable portion arranged such that detaching said portion from the blister pack initiates charging of the electronic device.
A trocar comprising a trocar rod and a sheath, wherein A. the sheath of the trocar comprises an end sealing piece, a sleeve and an anti-reverse apparatus, the anti-reverse apparatus arranged to prevent loosening of the end sealing piece from a proximal end of the sleeve; B. the end sealing piece is detachably mounted at a proximal end of the sleeve; and C. the anti-reverse apparatus comprises a latch disposed on a side surface of the proximal end of the sleeve, and a release switch disposed at a position, corresponding to the latch, on the side surface of a housing of the end sealing piece; wherein the latch is arranged to stop the end sealing piece from moving reversely by pointing radially outward so as to engage a positioning block on the end sealing piece, wherein the release switch is configured to relieve the stopping action exerted by the latch on the reverse movement of the end sealing piece upon being pressed radially inward. A. the sheath of the trocar comprises an end sealing piece, a sleeve and an anti-reverse apparatus, the anti-reverse apparatus arranged to prevent loosening of the end sealing piece from a proximal end of the sleeve; B. the end sealing piece is detachably mounted at a proximal end of the sleeve; and C. the anti-reverse apparatus comprises a latch disposed on a side surface of the proximal end of the sleeve, and a release switch disposed at a position, corresponding to the latch, on the side surface of a housing of the end sealing piece;
A method of decomposing phenol-based by-product, the method comprising: introducing a phenol-based by-product stream, a first stream of a side discharge stream from a decomposition device, and a process water stream to a mixing device and mixing the streams; introducing a discharge stream from the mixing device to a layer separation device to phase-separate the discharge stream into an oil phase and an aqueous phase; passing an oil stream discharged from the layer separation device through any one or more of a first heat exchanger and a second heat exchanger and introducing the oil stream to the decomposition device to carry out decomposition; and supplying the first stream of the side discharge stream from the decomposition device to the mixing device, forming a mixed stream of a second stream of the side discharge stream from the decomposition device with a lower discharge stream from the decomposition device and discharging the mixed stream, and recovering effective components from an upper discharge stream from the decomposition device, wherein the phenol-based by-product stream is supplied to the mixing device after heat exchange with the oil stream discharged from the layer separation device in the first heat exchanger, and wherein the mixed stream is heat-exchanged with the oil stream, which has been passed through the first heat exchanger, in the second heat exchanger and then is discharged. introducing a phenol-based by-product stream, a first stream of a side discharge stream from a decomposition device, and a process water stream to a mixing device and mixing the streams; introducing a discharge stream from the mixing device to a layer separation device to phase-separate the discharge stream into an oil phase and an aqueous phase; passing an oil stream discharged from the layer separation device through any one or more of a first heat exchanger and a second heat exchanger and introducing the oil stream to the decomposition device to carry out decomposition; and supplying the first stream of the side discharge stream from the decomposition device to the mixing device, forming a mixed stream of a second stream of the side discharge stream from the decomposition device with a lower discharge stream from the decomposition device and discharging the mixed stream, and recovering effective components from an upper discharge stream from the decomposition device, wherein the phenol-based by-product stream is supplied to the mixing device after heat exchange with the oil stream discharged from the layer separation device in the first heat exchanger, and wherein the mixed stream is heat-exchanged with the oil stream, which has been passed through the first heat exchanger, in the second heat exchanger and then is discharged.
Method for controlling a boost vacuum (ΔP) of a vacuum brake booster, comprising steps consisting in: - operating a vacuum pump so as to increase the said vacuum (ΔP) when the said vacuum (ΔP) is below a low threshold; and - stopping the vacuum pump when the said vacuum (ΔP) is above a high threshold (S2, S2v) or when a quantified duration of operation (Δt) of the vacuum pump exceeds (34, 36) a high limit duration (tM); characterized in that it comprises at least one step consisting in: - lowering the high threshold (S2v) when the quantified duration of operation (Δt) of the vacuum pump is greater than or equal to the high limit duration (tM). - operating a vacuum pump so as to increase the said vacuum (ΔP) when the said vacuum (ΔP) is below a low threshold; and - stopping the vacuum pump when the said vacuum (ΔP) is above a high threshold (S2, S2v) or when a quantified duration of operation (Δt) of the vacuum pump exceeds (34, 36) a high limit duration (tM); - lowering the high threshold (S2v) when the quantified duration of operation (Δt) of the vacuum pump is greater than or equal to the high limit duration (tM).
A method of manufacturing an assembly comprising a first part and a second part, the method comprising: - predicting a set of predicted manufacturing dimensions within a range of predetermined allowances for the first part using a historical dataset from a plurality of previously-built parts, wherein the predicting is influenced by a plurality of independent factors; - manufacturing the first part according to designed dimensions; - scanning the first part to determine a set of actual manufacturing dimensions for the first part; - manufacturing the second part, wherein the second part is manufactured based on the set of predicted manufacturing dimensions for the first part such that the second part is configured to engage the first part, wherein the manufacturing the second part is at least partially performed before the scanning the first part is completed; and - comparing the set of predicted manufacturing dimensions to the set of actual manufacturing dimensions to check for any non-compliant deviances between the set of predicted manufacturing dimensions and the set of actual manufacturing dimensions - detecting one or more non-compliant deviance s between the set of predicted manufacturing dimensions and the set of actual manufacturing dimensions; and - modifying the second part to accommodate the one or more non-compliant deviances, such that the second part engages the first part when assembled, within predetermined tolerances. - predicting a set of predicted manufacturing dimensions within a range of predetermined allowances for the first part using a historical dataset from a plurality of previously-built parts, wherein the predicting is influenced by a plurality of independent factors; - manufacturing the first part according to designed dimensions; - scanning the first part to determine a set of actual manufacturing dimensions for the first part; - manufacturing the second part, wherein the second part is manufactured based on the set of predicted manufacturing dimensions for the first part such that the second part is configured to engage the first part, wherein the manufacturing the second part is at least partially performed before the scanning the first part is completed; and - comparing the set of predicted manufacturing dimensions to the set of actual manufacturing dimensions to check for any non-compliant deviances between the set of predicted manufacturing dimensions and the set of actual manufacturing dimensions - detecting one or more non-compliant deviance s between the set of predicted manufacturing dimensions and the set of actual manufacturing dimensions; and - modifying the second part to accommodate the one or more non-compliant deviances, such that the second part engages the first part when assembled, within predetermined tolerances.
Styling preparation comprising a fixing polymer, a silicone wax and a propellant selected from butane, isobutane, propane, dimethyl ether, wherein the fixing polymer is selected from PVP/VA, PVP, PVCaprolactam, carbomers, acrylates/hydroxyesters acrylates copolymer, acrylates/steareth-20 methacrylate copolymer, polyquaternium-4, polyquaternium-68, polyquaternium-89, octylacrylamide/acrylates/butylaminoethyl methacrylate, preferably from PVP/VA, polyquaternium-4, polyquaternium-68, octylacrylamide/acrylates/butylaminoethyl methacrylate, particularly preferably PVP/VA, polyquaternium-4, polyquaternium-68, and wherein the silicone wax a) has at least one terminal alkyl chain having 18 to 38 carbon atoms, preferably having 18 to 26 carbon atoms, particularly preferably having 22 carbon atoms and a dimethylsiloxane chain having 4 to 14, preferably 5 to 10, particularly preferably 6 to 7 silicon atoms, and b) has a melting point of at most 50°C. a) has at least one terminal alkyl chain having 18 to 38 carbon atoms, preferably having 18 to 26 carbon atoms, particularly preferably having 22 carbon atoms and a dimethylsiloxane chain having 4 to 14, preferably 5 to 10, particularly preferably 6 to 7 silicon atoms, and b) has a melting point of at most 50°C.