mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising a middle frame, a switch member, a pressing member, and a fixing member, wherein the middle frame comprises an external face and an assembly face connected to the external face, the middle frame is provided with a mounting slot and a button slot, an opening of the mounting slot is located on the assembly face, an opening of the button slot is located on the external face, and the button slot communicates with the mounting slot; the switch member is mounted in the mounting slot, the switch member comprises a circuit board and a switch fixed to the circuit board, and the circuit board comprises a first limiting part; the pressing member comprises a pressing part, and a pushing part and a clamping part that are connected to the pressing part, the pushing part and the clamping part extend from the button slot into the mounting slot, the pushing part faces toward the switch, and the pressing part is partially exposed on the external face of the middle frame; and the fixing member is located in the mounting slot, the fixing member comprises a fixing plate, and an engaging plate and a first stop plate that are connected to the fixing plate, the fixing plate is fixedly connected to a slot bottom wall and/or a slot side wall of the mounting slot, the engaging plate clamps the clamping part, the first stop plate is located on a side of the first limiting part away from the slot bottom wall of the mounting slot, and the first stop plate faces toward the first limiting part, wherein a distance between two faces (5341, 5111a) of the first stop plate and the first limiting part that face toward each other is less than or equal to 0.1 mm.
A process for the preparation of microbeads, comprising the steps of: stacking on a substrate a sacrificial layer capable of being physically or chemically etched in a stripping step, which is formed of a fluorinated organic material layer; forming a thin film as an upper layer over the sacrificial layer; patterning the thin film into microbead regions of predetermined shape by photolithography; immobilizing a predetermined substance on the thus-patterned microbead regions; and stripping off, from the substrate, the thus-patterned microbead regions with the substance immobilized thereon, wherein in the stripping step, the thus-patterned microbead regions are stripped off from the substrate by causing the fluorinated organic material layer to sublimate. stacking on a substrate a sacrificial layer capable of being physically or chemically etched in a stripping step, which is formed of a fluorinated organic material layer; forming a thin film as an upper layer over the sacrificial layer; patterning the thin film into microbead regions of predetermined shape by photolithography; immobilizing a predetermined substance on the thus-patterned microbead regions; and stripping off, from the substrate, the thus-patterned microbead regions with the substance immobilized thereon, wherein in the stripping step, the thus-patterned microbead regions are stripped off from the substrate by causing the fluorinated organic material layer to sublimate.
Complex comprising: a) Pt; b) a ligand corresponding to formula: where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are selected from: -H, -(C 1 -C 12)-alkyl, -(C 6 -C 20)-aryl, -(C 5 -C 20)-heteroaryl, and, if R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are - (C 6 -C 20)-aryl or - (C 5 -C 20)-heteroaryl, the ring systems may have (C 1 -C 12)-alkyl substituents; c) an iodine ligand or bromine ligand. a) Pt; b) a ligand corresponding to formula: where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are selected from: -H, -(C 1 -C 12)-alkyl, -(C 6 -C 20)-aryl, -(C 5 -C 20)-heteroaryl, and, if R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are - (C 6 -C 20)-aryl or - (C 5 -C 20)-heteroaryl, the ring systems may have (C 1 -C 12)-alkyl substituents; c) an iodine ligand or bromine ligand.
Hanger for a C-shaped profile rail of a ceiling construction, wherein the hanger in a position set into the profile rail has a fastening part, protruding out of the profile rail, which is adapted to a system for ceiling hanging, and a sheet metal body gripping under the edges of the profile rail, the planar orientation of which after the installation is perpendicular to the extension direction of the profile rail, and two lateral bending lugs, which are angled away from the sheet metal body, are provided to be bent over the lateral edges of the profile rail, wherein the lateral bending lugs point in opposite directions with respect to the planar sheet metal body, characterised in that in the bending lugs are provided in each case two spaced predetermined bending points (30, 32), wherein the predetermined bending points (30, 32) are defined by differently dimensioned longitudinal holes (34, 36), lying parallel to one another, along the desired predetermined bending points (30, 32).
A hot-dip galvanized cold-rolled steel sheet having a hot-dip galvanized layer on a surface of a cold-rolled steel sheet, characterized by having a chemical composition comprising, in mass percent, C: more than 0.10% and less than 0.25%, Si: more than 0.50% and less than 2.0%, Mn: more than 1.50% and at most 3.0%, P: less than 0.050%, S: at most 0.010%, sol. Al: at least 0% and at most 0.50%, N: 0.010% or less, Ti: at least 0% and less than 0.040%, Nb: at least 0% and less than 0.030%, V: at least 0% and at most 0.50%, Cr: at least 0% and at most 1.0%, Mo: at least 0% and less than 0.20%, B: at least 0% and at most 0.010%, Ca: at least 0% and at most 0.010%, Mg: at least 0% and at most 0.010%, REM: at least 0% and at most 0.050%, Bi: at least 0% and at most 0.050%, and the remainder being Fe and impurities, and by having a metallurgical structure in which a main phase is a low-temperature transformation product and a second phase contains retained austenite, wherein the retained austenite has a volume fraction of more than 4.0% to less than 25.0% with respect to a whole structure, and an average grain size of less than 0.80 μm, and in the retained austenite, a number density of retained austenite grains having a grain size of 1.2 μm or more is 3.0 × 10 -2 /μm 2 or less.
A system capable of controlling at least one additive manufacturing print, comprising: a plurality of sensors capable of monitoring at least one of a build perimeter, a build height, and a build volume for an additive print build resultant from the additive manufacturing print; a print server comprising at least one processor capable of receiving sensor data regarding the monitoring from the plurality of sensors, and comprising non-transitory computing code for applying to the sensor data a print process plan indicative of the additive print build; a comparator embedded in the non-transitory computing code for assessing a lack of compliance by the additive print build to the print process plan; and at least one modified output of the additive manufacturing print suitable to revise the compliance of the additive print build to the print process plan; characterized in; the system further comprising a multiplexed plurality of sensors, wherein the multiplexed plurality of sensors comprises at least one unique emitter multiplexed to two or more detector sensors. a plurality of sensors capable of monitoring at least one of a build perimeter, a build height, and a build volume for an additive print build resultant from the additive manufacturing print; a print server comprising at least one processor capable of receiving sensor data regarding the monitoring from the plurality of sensors, and comprising non-transitory computing code for applying to the sensor data a print process plan indicative of the additive print build; a comparator embedded in the non-transitory computing code for assessing a lack of compliance by the additive print build to the print process plan; and at least one modified output of the additive manufacturing print suitable to revise the compliance of the additive print build to the print process plan;
A harness for breathing apparatus, comprising: a structural support member for supporting a vessel of breathable gas; a waist belt; and a pivot joint mechanism (136, 236) coupling the structural support member to the waist belt and permitting pivoting movement between the structural support member and the waist belt when a user bends forwards and back at the waist, wherein the harness further comprises a release mechanism to decouple the structural support member from the waist belt; the release mechanism comprising: a pivot pin (134, 234) of the pivot joint mechanism (136, 236) which defines a pivot axis of the pivot joint mechanism (136, 236), and is slidably removable along the pivot axis; a release strap coupled to the pivot pin (134, 234) and configured to apply an axial force to slidably remove the pivot pin (134, 234) from the pivot joint mechanism (136, 236) when the release strap is pulled; and a detent for exerting a retaining force to resist axial movement of the pivot pin (134, 234). a structural support member for supporting a vessel of breathable gas; a waist belt; and a pivot joint mechanism (136, 236) coupling the structural support member to the waist belt and permitting pivoting movement between the structural support member and the waist belt when a user bends forwards and back at the waist, wherein the harness further comprises a release mechanism to decouple the structural support member from the waist belt; the release mechanism comprising: a pivot pin (134, 234) of the pivot joint mechanism (136, 236) which defines a pivot axis of the pivot joint mechanism (136, 236), and is slidably removable along the pivot axis; a release strap coupled to the pivot pin (134, 234) and configured to apply an axial force to slidably remove the pivot pin (134, 234) from the pivot joint mechanism (136, 236) when the release strap is pulled; and a detent for exerting a retaining force to resist axial movement of the pivot pin (134, 234). a pivot pin (134, 234) of the pivot joint mechanism (136, 236) which defines a pivot axis of the pivot joint mechanism (136, 236), and is slidably removable along the pivot axis; a release strap coupled to the pivot pin (134, 234) and configured to apply an axial force to slidably remove the pivot pin (134, 234) from the pivot joint mechanism (136, 236) when the release strap is pulled; and a detent for exerting a retaining force to resist axial movement of the pivot pin (134, 234).
Arrangement for power distribution on a vessel, comprising: a first DC bus operating at a first medium voltage; at least one second DC bus operating at a second medium voltage and having no direct connection with the first DC bus; a first AC bus operating at a low voltage; a first inverter coupled between the first DC bus and the first AC bus for allowing power flow from the first DC bus to the first AC bus in a first operation mode; a second AC bus operating at the low voltage; a second inverter coupled between the second DC bus and the second AC bus for allowing power flow from the second DC bus to the second AC bus in the first operation mode; a low voltage connection system for selectively connecting or disconnecting the first AC bus and the second AC bus; characterised in that the arrangement is adapted, in a second operation mode to connect the first AC bus and the second AC bus via the low voltage connection system and to control the first inverter and the second inverter, in order to supply power from the second DC bus via the second inverter to the second AC bus, from the second AC bus to the first AC bus and from the first AC bus via the first inverter to the first DC bus or vice versa. a first DC bus operating at a first medium voltage; at least one second DC bus operating at a second medium voltage and having no direct connection with the first DC bus; a first AC bus operating at a low voltage; a first inverter coupled between the first DC bus and the first AC bus for allowing power flow from the first DC bus to the first AC bus in a first operation mode; a second AC bus operating at the low voltage; a second inverter coupled between the second DC bus and the second AC bus for allowing power flow from the second DC bus to the second AC bus in the first operation mode; a low voltage connection system for selectively connecting or disconnecting the first AC bus and the second AC bus; characterised in that the arrangement is adapted, in a second operation mode to connect the first AC bus and the second AC bus via the low voltage connection system and to control the first inverter and the second inverter, in order to supply power from the second DC bus via the second inverter to the second AC bus, from the second AC bus to the first AC bus and from the first AC bus via the first inverter to the first DC bus or vice versa.
A method comprising: registering a private key and a public key associated with at least one of a tenant key identifier for a tenant or an application key identifier for a first application of the tenant, validating data in addresses of a group of storage blocks using the private key and the public key, and associating the addresses of the group of storage blocks to the at least one of the tenant key identifier or the application key identifier; generating a map by mapping the group of storage blocks to the tenant comprising associating the addresses of the group of storage blocks with the tenant key identifier or the application key identifier, the group of storage blocks and a signature, wherein the signature is to validate the group of storage blocks; determining if a data access request for a first storage block is received, the data access request from a software stack; if a data access request is determined to be received performing a signature validation for the data access request based on the map of the group of storage blocks to the tenant; if a data access request is determined not to be received determining if a migration request is received; and if a migration request is determined to be received migrating data of the group of storage blocks and corresponding meta-data from a first storage device to a second storage device, the meta-data including attestation data of the group of storage blocks. registering a private key and a public key associated with at least one of a tenant key identifier for a tenant or an application key identifier for a first application of the tenant, validating data in addresses of a group of storage blocks using the private key and the public key, and associating the addresses of the group of storage blocks to the at least one of the tenant key identifier or the application key identifier; generating a map by mapping the group of storage blocks to the tenant comprising associating the addresses of the group of storage blocks with the tenant key identifier or the application key identifier, the group of storage blocks and a signature, wherein the signature is to validate the group of storage blocks; determining if a data access request for a first storage block is received, the data access request from a software stack; if a data access request is determined to be received performing a signature validation for the data access request based on the map of the group of storage blocks to the tenant; if a data access request is determined not to be received determining if a migration request is received; and if a migration request is determined to be received migrating data of the group of storage blocks and corresponding meta-data from a first storage device to a second storage device, the meta-data including attestation data of the group of storage blocks.
A method for data stream transmission, comprising steps: receiving, by a resting device, a message indicating to enter into the energy-saving state; after receiving the message indicating to enter into the energy-saving state, sending, by the resting device, stored user information to an on-duty device so that the on-duty device receives and synchronizes the user information; after the user information is synchronized, setting, by the resting device, transmission state as standby and entering into the sleeping state; wherein a data stream switching is performed between the resting device and the on-duty device after the user information is synchronized, and the on-duty device is a device in the working state after the data stream switching, while the resting device is a device in the sleeping state after the data stream switching; and wherein after the user information is synchronized, the on-duty device sets transmission state as main and performs a data stream switching, wherein the on-duty device setting the transmission state as main and performing the data stream switching comprises: distributing a routing to an upstream device to trigger the data stream switching; setting the device priority as high according to a Virtual Router Redundancy Protocol of the on-duty device, so as to set the transmission state as main; and sending Address Resolution Protocol packets to a downstream device. receiving, by a resting device, a message indicating to enter into the energy-saving state; after receiving the message indicating to enter into the energy-saving state, sending, by the resting device, stored user information to an on-duty device so that the on-duty device receives and synchronizes the user information; after the user information is synchronized, setting, by the resting device, transmission state as standby and entering into the sleeping state; wherein a data stream switching is performed between the resting device and the on-duty device after the user information is synchronized, and the on-duty device is a device in the working state after the data stream switching, while the resting device is a device in the sleeping state after the data stream switching; and wherein after the user information is synchronized, the on-duty device sets transmission state as main and performs a data stream switching, wherein the on-duty device setting the transmission state as main and performing the data stream switching comprises: distributing a routing to an upstream device to trigger the data stream switching; setting the device priority as high according to a Virtual Router Redundancy Protocol of the on-duty device, so as to set the transmission state as main; and sending Address Resolution Protocol packets to a downstream device.
A catheter device comprising: a central catheter defining: a central lumen extending from a proximal end of the central catheter to a distal end of the central catheter, the central lumen configured to receive a primary guidewire, and at least one reentry aperture (716, 718) extending transverse to the extension of the central lumen through a wall of the central catheter; characterised in that a first side tube and a second side tube, each coupled with and extending alongside the central catheter and extending along a longitudinal axis thereof, the first side tube flanking an opposite side of the central catheter relative to the second side tube; and a subintimal guidewire extending from the first side tube, to the second side tube and having a curved shape therebetween extending distally beyond the distal end of the central catheter. a central catheter defining: a central lumen extending from a proximal end of the central catheter to a distal end of the central catheter, the central lumen configured to receive a primary guidewire, and at least one reentry aperture (716, 718) extending transverse to the extension of the central lumen through a wall of the central catheter; characterised in that a central lumen extending from a proximal end of the central catheter to a distal end of the central catheter, the central lumen configured to receive a primary guidewire, and at least one reentry aperture (716, 718) extending transverse to the extension of the central lumen through a wall of the central catheter; characterised in that a first side tube and a second side tube, each coupled with and extending alongside the central catheter and extending along a longitudinal axis thereof, the first side tube flanking an opposite side of the central catheter relative to the second side tube; and a subintimal guidewire extending from the first side tube, to the second side tube and having a curved shape therebetween extending distally beyond the distal end of the central catheter.
A vented box loudspeaker system comprising: a speaker driver including a diaphragm; and a controller configured to: receive a source signal for reproduction via the speaker driver; determine a target displacement of the diaphragm based on an input voltage of the source signal and a first physical model of the vented box loudspeaker system; determine a target sound pressure in the vented box loudspeaker system based on the input voltage of the source signal and the first physical model of the vented box loudspeaker system; determine a target current to draw through the speaker driver based on the target displacement, the target sound pressure and a second physical model of the vented box loudspeaker system; generate a control voltage based on the target displacement, the target current and the second physical model of the vented box loudspeaker system; and control an actual displacement of the diaphragm based on the generated control voltage during reproduction of the source signal. a speaker driver including a diaphragm; and a controller configured to: receive a source signal for reproduction via the speaker driver; determine a target displacement of the diaphragm based on an input voltage of the source signal and a first physical model of the vented box loudspeaker system; determine a target sound pressure in the vented box loudspeaker system based on the input voltage of the source signal and the first physical model of the vented box loudspeaker system; determine a target current to draw through the speaker driver based on the target displacement, the target sound pressure and a second physical model of the vented box loudspeaker system; generate a control voltage based on the target displacement, the target current and the second physical model of the vented box loudspeaker system; and control an actual displacement of the diaphragm based on the generated control voltage during reproduction of the source signal. receive a source signal for reproduction via the speaker driver; determine a target displacement of the diaphragm based on an input voltage of the source signal and a first physical model of the vented box loudspeaker system; determine a target sound pressure in the vented box loudspeaker system based on the input voltage of the source signal and the first physical model of the vented box loudspeaker system; determine a target current to draw through the speaker driver based on the target displacement, the target sound pressure and a second physical model of the vented box loudspeaker system; generate a control voltage based on the target displacement, the target current and the second physical model of the vented box loudspeaker system; and control an actual displacement of the diaphragm based on the generated control voltage during reproduction of the source signal.
An air conditioning indoor unit, comprising: a housing; a heat exchanger arranged in the housing; a first silencer arranged in the housing and coupled to a first end of the heat exchanger; and a second silencer arranged in the housing and coupled to a second end of the heat exchanger,, characterized in that, a third silencer coupled to an end of the first silencer away from the heat exchanger, wherein in a heating mode refrigerant discharged from a compressor flows to the third silencer, and then to the first silencer. a housing; a heat exchanger arranged in the housing; a first silencer arranged in the housing and coupled to a first end of the heat exchanger; and a second silencer arranged in the housing and coupled to a second end of the heat exchanger,, characterized in that, a third silencer coupled to an end of the first silencer away from the heat exchanger, wherein in a heating mode refrigerant discharged from a compressor flows to the third silencer, and then to the first silencer.