mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a hole in a semiconductor device, comprising: providing a base to be etched and forming a mask layer on the base to be etched; forming a first pattern layer arranged in an array on the mask layer; and etching the mask layer by using the first pattern layer as a mask to form a first hole and a second pattern layer; depositing a protective layer on a side of the second pattern layer away from the base to be etched, the protective layer simultaneously covering a side wall and a bottom portion of the first hole; etching the protective layer which covers the bottom portion of the first hole; and etching the base to be etched by using the second pattern layer and the protective layer which covers the side wall of the first hole as a mask to form a second hole, wherein a critical dimension of the second hole is less than a critical dimension of the first hole, characterized in that a depth-to-width ratio of the first hole is greater than or equal to 8 and less than or equal to 20. providing a base to be etched and forming a mask layer on the base to be etched; forming a first pattern layer arranged in an array on the mask layer; and etching the mask layer by using the first pattern layer as a mask to form a first hole and a second pattern layer; depositing a protective layer on a side of the second pattern layer away from the base to be etched, the protective layer simultaneously covering a side wall and a bottom portion of the first hole; etching the protective layer which covers the bottom portion of the first hole; and etching the base to be etched by using the second pattern layer and the protective layer which covers the side wall of the first hole as a mask to form a second hole, wherein a critical dimension of the second hole is less than a critical dimension of the first hole, characterized in that a depth-to-width ratio of the first hole is greater than or equal to 8 and less than or equal to 20.
A method performed by a master base station in a wireless communication system, the method comprising: transmitting, to a secondary base station, a secondary base station setup request message for requesting the secondary base station to allocate resources for a dual connectivity, DC, operation; receiving, from the secondary base station, a secondary base station setup response message, after transmitting the secondary base station setup request message; and transmitting, to the secondary base station, a modification message, after receiving the secondary base station setup response message, wherein the secondary base station setup request message comprises a quality of service, QoS, flow identifier, ID and available data radio bearer, DRB, IDs, wherein the secondary base station setup response message comprises the QoS flow ID and a DRB ID corresponding to the QoS flow ID, and wherein the modification message comprises tunnel information for the DRB ID, comprising an internet protocol, IP address and a tunnel endpoint identifier, TEID. transmitting, to a secondary base station, a secondary base station setup request message for requesting the secondary base station to allocate resources for a dual connectivity, DC, operation; receiving, from the secondary base station, a secondary base station setup response message, after transmitting the secondary base station setup request message; and transmitting, to the secondary base station, a modification message, after receiving the secondary base station setup response message, wherein the secondary base station setup request message comprises a quality of service, QoS, flow identifier, ID and available data radio bearer, DRB, IDs, wherein the secondary base station setup response message comprises the QoS flow ID and a DRB ID corresponding to the QoS flow ID, and wherein the modification message comprises tunnel information for the DRB ID, comprising an internet protocol, IP address and a tunnel endpoint identifier, TEID.
A natural gas engine lubricating oil composition comprising: (a) a major amount of an oil of lubricating viscosity, (b) greater than about 2 wt. % but less than about 4 wt. %, based on the total weight of the natural gas engine lubricating oil composition, of one or more phenolic antioxidants, wherein the one or more phenolic antioxidants are one or more sterically hindered phenolic antioxidants, (c) about 0.1 wt. % to about 1 wt. %, based on the total weight of the natural gas engine lubricating oil composition, of one or more aminic antioxidants, (d) one or more metal dithiophosphates, (e) one or more alkali metal or alkali earth metal phenate detergents having a total base number of about 150 to about 250 on an oil free basis, wherein the one or more alkali metal or alkali earth metal phenate detergents provide at least about 0.10 wt. % of alkali metal or alkali earth metal to the natural gas engine lubricating oil composition. (a) a major amount of an oil of lubricating viscosity, (b) greater than about 2 wt. % but less than about 4 wt. %, based on the total weight of the natural gas engine lubricating oil composition, of one or more phenolic antioxidants, wherein the one or more phenolic antioxidants are one or more sterically hindered phenolic antioxidants, (c) about 0.1 wt. % to about 1 wt. %, based on the total weight of the natural gas engine lubricating oil composition, of one or more aminic antioxidants, (d) one or more metal dithiophosphates, (e) one or more alkali metal or alkali earth metal phenate detergents having a total base number of about 150 to about 250 on an oil free basis, wherein the one or more alkali metal or alkali earth metal phenate detergents provide at least about 0.10 wt. % of alkali metal or alkali earth metal to the natural gas engine lubricating oil composition.
A cooking appliance comprising: a plurality of sidewalls and an operable door, the plurality of sidewalls defining an interior surface of a heating cavity; at least one heat source disposed in thermal communication with the heating cavity; an oven cavity connector positioned within at least one of the plurality of sidewalls, wherein the oven cavity connector includes a plurality of electrical contacts disposed within a connector interior, the connector interior being in communication with the heating cavity; and at least one operable door that selectively encloses the connector interior when the at least one operable door is in an idle state, the at least one operable door being biased toward the idle state, and wherein the at least one operable door is adapted to be biased into the connector interior and toward an engaged state when a connecting plug of a powered accessory tray is engaged with the oven cavity connector, characterised in that the at least one operable door includes a pair of opposing operable doors and in that each of the at least one operable door is made of a thermally insulative material, wherein the pair of opposing operable doors in the idle state limits thermal transfer between the heating cavity and the connector interior. a plurality of sidewalls and an operable door, the plurality of sidewalls defining an interior surface of a heating cavity; at least one heat source disposed in thermal communication with the heating cavity; an oven cavity connector positioned within at least one of the plurality of sidewalls, wherein the oven cavity connector includes a plurality of electrical contacts disposed within a connector interior, the connector interior being in communication with the heating cavity; and at least one operable door that selectively encloses the connector interior when the at least one operable door is in an idle state, the at least one operable door being biased toward the idle state, and wherein the at least one operable door is adapted to be biased into the connector interior and toward an engaged state when a connecting plug of a powered accessory tray is engaged with the oven cavity connector,
A method of 3D ink jet printing, the method comprising a step of jetting out droplets of a curable liquid onto a substrate in positions that fit into a predetermined raster; and a step of radiation-controlled curing of the liquid, wherein the radiation is applied at spots that also fit into a predetermined raster, characterized in that the raster that is employed in the curing step has a higher resolution than the raster employed in the jetting step.
Hydraulic centrifugal coupling comprising: - a driving assembly adapted to be set in rotation about a rotation axis, - a driven assembly adapted to be set in rotation about the rotation axis for transmission of rotary motion from the driving assembly to the driven assembly, said driving assembly and said driven assembly forming a compartment, adapted to contain liquid, having a first and second chamber (15, 16), axially separated from each other by pushing members (14, 19), said pushing members (14, 19) comprising a rigid septum movable along an axial direction, parallel to said rotation axis, - at least one driving friction member and at least one driven friction member arranged in said first chamber, movable along said axial direction, wherein said first and second chamber (15, 16) are in fluid communication with each other so as to produce, in a rotation start-up phase of the driving assembly, a transfer of the liquid from the first chamber to the second chamber that generates an axial pressure on said pushing members (14, 19) such as to press said at least one driving friction member and said at least one driven friction member one against the other and thus obtain said transmission of rotary motion from the driving assembly to the driven assembly, characterized in that said first and second chamber (15, 16) are respectively delimited in a radially outer position by a first and second outer circumferential surface (3', 5') and in that the pushing members (14, 19) also comprise an elastically deformable septum fixed, at a radially outer portion thereof, between said first and second outer circumferential surface (3', 5'), said elastically deformable septum being adapted to elastically deform under the axial pressure generated by said transfer of liquid from the first chamber to the second chamber so as to axially push said rigid septum. - a driving assembly adapted to be set in rotation about a rotation axis, - a driven assembly adapted to be set in rotation about the rotation axis for transmission of rotary motion from the driving assembly to the driven assembly, said driving assembly and said driven assembly forming a compartment, adapted to contain liquid, having a first and second chamber (15, 16), axially separated from each other by pushing members (14, 19), said pushing members (14, 19) comprising a rigid septum movable along an axial direction, parallel to said rotation axis, - at least one driving friction member and at least one driven friction member arranged in said first chamber, movable along said axial direction,
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from an access and mobility management function, AMF, a first message including first information for identifying the AMF and the terminal, the first information being assigned upon a successful registration to a first access; determining whether a public land mobile network, PLMN, associated with a second access is same as a PLMN associated with the first access; and transmitting, to an access network entity for the second access, a second message requesting registration to the second access, the second message including second information for identifying the AMF, in case that the PLMN associated with the second access is the same as the PLMN associated with the first access, wherein the second information includes at least a part of the first information, wherein the second information includes an AMF set identifier for the AMF and an AMF identifier for the AMF, wherein the first access is a 3rd Generation Partnership Project, 3GPP, access and the second access is a non-3GPP access, and wherein the registration to the second access is made when the terminal is successfully registered to the first access. receiving, from an access and mobility management function, AMF, a first message including first information for identifying the AMF and the terminal, the first information being assigned upon a successful registration to a first access; determining whether a public land mobile network, PLMN, associated with a second access is same as a PLMN associated with the first access; and transmitting, to an access network entity for the second access, a second message requesting registration to the second access, the second message including second information for identifying the AMF, in case that the PLMN associated with the second access is the same as the PLMN associated with the first access, wherein the second information includes at least a part of the first information, wherein the second information includes an AMF set identifier for the AMF and an AMF identifier for the AMF, wherein the first access is a 3rd Generation Partnership Project, 3GPP, access and the second access is a non-3GPP access, and wherein the registration to the second access is made when the terminal is successfully registered to the first access.
A computer-implemented procedure for image segmentation on three-dimensional medical images, comprising: generating a two-dimensional projection of a 3D image that includes an anatomic structure, wherein said anatomic structure includes at least a part of a branch or duct within a soft tissue organ, and displaying said 2D projection to a user; receiving a user-input tracing on the 2D projection, the tracing comprising at least one 2D curve corresponding to the anatomic structure; extracting a curved volume of interest in the 3D image based on the at least one 2D curve and the 2D projection at each point of said 2D curve; and extracting a 3D segmentation of the anatomic structure in the curved volume of interest; wherein extracting the 3D segmentation comprises: applying a line filter response algorithm to each voxel of the volume of interest; selecting an initial segmentation of said branch or duct based on selecting those voxels having a line filter response higher than a threshold; and segmenting said branch or duct based on said initial segmentation, wherein said segmenting comprises interpolating initial segmentation results to connect broken segments based on an orientation of the 2D curve. generating a two-dimensional projection of a 3D image that includes an anatomic structure, wherein said anatomic structure includes at least a part of a branch or duct within a soft tissue organ, and displaying said 2D projection to a user; receiving a user-input tracing on the 2D projection, the tracing comprising at least one 2D curve corresponding to the anatomic structure; extracting a curved volume of interest in the 3D image based on the at least one 2D curve and the 2D projection at each point of said 2D curve; and extracting a 3D segmentation of the anatomic structure in the curved volume of interest; wherein extracting the 3D segmentation comprises: applying a line filter response algorithm to each voxel of the volume of interest; selecting an initial segmentation of said branch or duct based on selecting those voxels having a line filter response higher than a threshold; and segmenting said branch or duct based on said initial segmentation, wherein said segmenting comprises interpolating initial segmentation results to connect broken segments based on an orientation of the 2D curve. applying a line filter response algorithm to each voxel of the volume of interest; selecting an initial segmentation of said branch or duct based on selecting those voxels having a line filter response higher than a threshold; and segmenting said branch or duct based on said initial segmentation, wherein said segmenting comprises interpolating initial segmentation results to connect broken segments based on an orientation of the 2D curve.
A printing device comprising: a transport unit configured to transport a medium in a transport direction; a printing unit configured to perform printing on the medium transported by the transport unit; a guide unit including a guide surface that guides the medium on which printing has been performed; and a vibration unit configured to cause the guide surface to vibrate, characterized in that the guide surface is formed to be increasingly directed vertically downward while advancing in the transport direction, and in that the printing device further comprises: a detector configured to detect floating of the medium from the guide surface; and a control unit configured to cause the guide surface to vibrate when floating of the medium from the guide surface occurs. a transport unit configured to transport a medium in a transport direction; a printing unit configured to perform printing on the medium transported by the transport unit; a guide unit including a guide surface that guides the medium on which printing has been performed; and a vibration unit configured to cause the guide surface to vibrate, characterized in that the guide surface is formed to be increasingly directed vertically downward while advancing in the transport direction, and in that the printing device further comprises: a detector configured to detect floating of the medium from the guide surface; and a control unit configured to cause the guide surface to vibrate when floating of the medium from the guide surface occurs. a detector configured to detect floating of the medium from the guide surface; and a control unit configured to cause the guide surface to vibrate when floating of the medium from the guide surface occurs.
A pedestal assembly, comprising: an electrostatic chuck having a substrate supporting surface; and a base plate disposed in a processing chamber, attached to the electrostatic chuck and having cooling channels formed therein wherein the cooling channels have an inlet passage and an outlet passage; a cooling assembly connected to the cooling channels via the inlet passage and the outlet passage, wherein the cooling assembly comprises: an inlet coupled to a gas source; an outlet open to an immediate environment outside the processing chamber; a flow controller coupled between the inlet and the inlet passage; and a heat exchanger coupled to the outlet passage of the cooling channels and to the outlet open to the immediate environment. an electrostatic chuck having a substrate supporting surface; and a base plate disposed in a processing chamber, attached to the electrostatic chuck and having cooling channels formed therein wherein the cooling channels have an inlet passage and an outlet passage; a cooling assembly connected to the cooling channels via the inlet passage and the outlet passage, wherein the cooling assembly comprises: an inlet coupled to a gas source; an outlet open to an immediate environment outside the processing chamber; a flow controller coupled between the inlet and the inlet passage; and a heat exchanger coupled to the outlet passage of the cooling channels and to the outlet open to the immediate environment. an inlet coupled to a gas source; an outlet open to an immediate environment outside the processing chamber; a flow controller coupled between the inlet and the inlet passage; and a heat exchanger coupled to the outlet passage of the cooling channels and to the outlet open to the immediate environment.
A device, comprising: a reaction structure configured to contain a reaction solution and a plurality of reaction sites that generate light emissions in response to incident excitation light after treatment with the reaction solution, the reaction structure being positioned over a device base; a plurality of light sensors within the device base; device circuitry within the device base electrically coupled to the plurality of light sensors to transmit data signals based on photons detected by the light sensors; and a plurality of light guides with input regions to receive the excitation light and the light emissions from at least one corresponding reaction site, the light guides extending into the device base from the input regions toward at least one corresponding light sensor, wherein each of the plurality of light guides comprise a first filter region formed of a first filter material, configured and arranged to filter the excitation light of at least a first wavelength and permit the light emissions of a second wavelength to pass therethrough to the at least one corresponding light sensor, characterized in that each of the plurality of light guides further comprise a second filter region formed of a second filter material, configured and arranged to filter the excitation light of at least the first wavelength and permit the light emissions of a third wavelength to pass therethrough to the at least one corresponding light sensor. a reaction structure configured to contain a reaction solution and a plurality of reaction sites that generate light emissions in response to incident excitation light after treatment with the reaction solution, the reaction structure being positioned over a device base; a plurality of light sensors within the device base; device circuitry within the device base electrically coupled to the plurality of light sensors to transmit data signals based on photons detected by the light sensors; and a plurality of light guides with input regions to receive the excitation light and the light emissions from at least one corresponding reaction site, the light guides extending into the device base from the input regions toward at least one corresponding light sensor, wherein each of the plurality of light guides comprise a first filter region formed of a first filter material, configured and arranged to filter the excitation light of at least a first wavelength and permit the light emissions of a second wavelength to pass therethrough to the at least one corresponding light sensor, characterized in that each of the plurality of light guides further comprise a second filter region formed of a second filter material, configured and arranged to filter the excitation light of at least the first wavelength and permit the light emissions of a third wavelength to pass therethrough to the at least one corresponding light sensor.
An annular collar for applying a radial compressive force to an outer surface of a tube comprising: a first end axially along an axial direction of said annular collar opposite a second end; and an inner surface, wherein the collar in cross-section as viewed along a plane extending axially along said axial direction and along a diameter of the collar comprises a generally triangular section and a hoop section over the generally triangular section, wherein the generally triangular section defines a tapered inner surface of the collar reducing in diameter axially along said axial direction in a direction toward the first end, wherein the collar comprises a fiber reinforced composite comprising fibers and resin, wherein substantially all fibers forming the triangular section are axially oriented along said axial direction, wherein the tapered inner surface of the collar is linear or non-linear, characterised in that the hoop section comprises fibres transverse to said axial direction. a first end axially along an axial direction of said annular collar opposite a second end; and an inner surface, wherein the collar in cross-section as viewed along a plane extending axially along said axial direction and along a diameter of the collar comprises a generally triangular section and a hoop section over the generally triangular section, wherein the generally triangular section defines a tapered inner surface of the collar reducing in diameter axially along said axial direction in a direction toward the first end, wherein the collar comprises a fiber reinforced composite comprising fibers and resin, wherein substantially all fibers forming the triangular section are axially oriented along said axial direction, wherein the tapered inner surface of the collar is linear or non-linear, characterised in that the hoop section comprises fibres transverse to said axial direction.