mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound probe comprising: a housing recessed inward from edges at an upper part thereof and having a plurality of mounting holes formed apart from a center and to the edges; a plurality of probe units installed in the mounting holes, respectively, so that a spherical surface for a spherical focusing is formed at the upper part of the housing; and a film covering the spherical surface formed by the plurality of probe units; wherein each of the probe units includes: a connection bar having electric and thermal conductivity; a first connection pin formed on a lower surface of the connection bar and protruded from a lower part of the housing through the mounting hole of the housing; a rear block formed on an upper surface of the connection bar and having an inclined plane for forming the spherical surface; a piezoelectric wafer formed on the inclined plane of the rear block; and a plurality of acoustic matching layers formed on an upper surface of the piezoelectric wafer. a housing recessed inward from edges at an upper part thereof and having a plurality of mounting holes formed apart from a center and to the edges; a plurality of probe units installed in the mounting holes, respectively, so that a spherical surface for a spherical focusing is formed at the upper part of the housing; and a film covering the spherical surface formed by the plurality of probe units; a connection bar having electric and thermal conductivity; a first connection pin formed on a lower surface of the connection bar and protruded from a lower part of the housing through the mounting hole of the housing; a rear block formed on an upper surface of the connection bar and having an inclined plane for forming the spherical surface; a piezoelectric wafer formed on the inclined plane of the rear block; and a plurality of acoustic matching layers formed on an upper surface of the piezoelectric wafer.
Ceramic component, comprising: - a main body with two connection contacts (102, 103) fitted thereto, - a first and a second elongately extended via electrode which are respectively electrically coupled to one of the connection contacts (102, 103), - wherein the first and second via electrodes have an extended area (106, 107) in each case in projection in the longitudinal direction of the respective via electrode (104, 105), - wherein one of the via electrodes (104, 105), has a first region having a first diameter and a second region having a second diameter, which is different from the first diameter, - wherein the main body has two regions (117, 118) having mutually different relative permittivities such that the regions (117, 119) of the main body which face the connection contacts (102, 103) in each case have a lower relative permittivity than the region arranged between the regions (117, 119) respectively facing the connection contacts (102, 103), - wherein the first diameter is greater than the second diameter, - wherein the first region of the via electrode (104, 105) is surrounded by the region (117, 119) of the main body which has the lower relative permittivity, characterized in that the second region of the via electrode (104, 105) having the smaller diameter is formed in the region of the main body which has a higher relative permittivity. - a main body with two connection contacts (102, 103) fitted thereto, - a first and a second elongately extended via electrode which are respectively electrically coupled to one of the connection contacts (102, 103), - wherein the first and second via electrodes have an extended area (106, 107) in each case in projection in the longitudinal direction of the respective via electrode (104, 105), - wherein one of the via electrodes (104, 105), has a first region having a first diameter and a second region having a second diameter, which is different from the first diameter, - wherein the main body has two regions (117, 118) having mutually different relative permittivities such that the regions (117, 119) of the main body which face the connection contacts (102, 103) in each case have a lower relative permittivity than the region arranged between the regions (117, 119) respectively facing the connection contacts (102, 103), - wherein the first diameter is greater than the second diameter, - wherein the first region of the via electrode (104, 105) is surrounded by the region (117, 119) of the main body which has the lower relative permittivity, characterized in that the second region of the via electrode (104, 105) having the smaller diameter is formed in the region of the main body which has a higher relative permittivity.
A system for degassing a hydrocarbon fluid comprising: a plurality of hollow tube membranes, said hollow tube membranes being formed of a plastic providing an inner support body and an outer selective layer which is denser than said inner support body, and said inner support body formed of spherulitic structures, wherein said spherulitic structures have a size that is less than or equal to 0.3 micron; said inner support body is formed of one of PVDF, one of its copolymers, polyimides, or a polyetherimide; said inner support body has radially outer areas with pores between 10 and 20 nm; a porosity of said inner support body is between 30 and 50 percent; a thickness of said inner support body is at least 0.25 times an outer diameter of said inner support body; said outer selective layer is an oxygen-permeable fluoropolymer; the diameter of the hollow tube is between 0.5 and 2.0 mm; and a thickness of said outer selective layer is between 0.25 and 0.75 micron. a plurality of hollow tube membranes, said hollow tube membranes being formed of a plastic providing an inner support body and an outer selective layer which is denser than said inner support body, and said inner support body formed of spherulitic structures, wherein said spherulitic structures have a size that is less than or equal to 0.3 micron; said inner support body is formed of one of PVDF, one of its copolymers, polyimides, or a polyetherimide; said inner support body has radially outer areas with pores between 10 and 20 nm; a porosity of said inner support body is between 30 and 50 percent; a thickness of said inner support body is at least 0.25 times an outer diameter of said inner support body; said outer selective layer is an oxygen-permeable fluoropolymer; the diameter of the hollow tube is between 0.5 and 2.0 mm; and a thickness of said outer selective layer is between 0.25 and 0.75 micron.
A method for transferring an InP film onto a stiffener substrate, the method comprising the steps consisting of: a) Providing a structure comprising a surface layer of InP and an underlying doped thin InP layer, the doped thin layer comprising a concentration of electrically active dopants of between 10 17 and 10 20 at/cm 3 so that the doped thin layer has an emissivity of between 0.75 and 0.9, b) Implanting hydrogen ions through the surface layer so as to create a weakened plane in the doped thin layer, delimiting a film comprising the surface layer, the step b) comprising a step to implant hydrogen ions at an energy and current density, said energy and said current density and the doping of the thin layer being such that the implantation temperature in the doped thin layer is between 120 and 180°C, c) Placing the surface layer in close contact with a stiffener substrate, and d) Applying heat treatment to obtain splitting at the weakened plane and transfer of the film onto the stiffener substrate. a) Providing a structure comprising a surface layer of InP and an underlying doped thin InP layer, the doped thin layer comprising a concentration of electrically active dopants of between 10 17 and 10 20 at/cm 3 so that the doped thin layer has an emissivity of between 0.75 and 0.9, b) Implanting hydrogen ions through the surface layer so as to create a weakened plane in the doped thin layer, delimiting a film comprising the surface layer, the step b) comprising a step to implant hydrogen ions at an energy and current density, said energy and said current density and the doping of the thin layer being such that the implantation temperature in the doped thin layer is between 120 and 180°C, c) Placing the surface layer in close contact with a stiffener substrate, and d) Applying heat treatment to obtain splitting at the weakened plane and transfer of the film onto the stiffener substrate.
A stent having a longitudinal axis and comprising a plurality of bands connected one to another by connectors, each band comprising a plurality of first portions and a plurality of second portions, the first portions being generally transverse to the longitudinal axis of the stent, the second portions being parallel to the longitudinal axis of the stent, the second portions engaging the first portions, each first portions having a width (Wt), each second portion having a width (Wl and each connector having a width (Wc), characterized in that the width (Wt) of the first portions is greater than the width (Wl) of the second portions and the width (Wc) of the connectors and the width Wl) of the second portions is greater than the width (Wc) of the connectors; the width (Wt) of the first portion and the width (Wl) of the second portions have substantially constant dimensions; and in that the width ratio (Wt/Wl) is consistent across the stent.
A compound of formula or pharmaceutically acceptable salt thereof: wherein, X is nitrogen, Y and Z are carbon; R 1 is phenyl, pyridine, or pyrimidine substituted or unsubstituted with one or more substituents selected from the group consisting of hydroxy, amino and halogen; R 2 is hydrogen; and R 3 is pyrimidine substituted or unsubstituted with one or more substituents selected from the group consisting of C 1 -C 6 alkyl, C 3 -C 10 heterocycloalkyl, amino, C 1 -C 6 alkylamino and halogen. X is nitrogen, Y and Z are carbon; R 1 is phenyl, pyridine, or pyrimidine substituted or unsubstituted with one or more substituents selected from the group consisting of hydroxy, amino and halogen; R 2 is hydrogen; and R 3 is pyrimidine substituted or unsubstituted with one or more substituents selected from the group consisting of C 1 -C 6 alkyl, C 3 -C 10 heterocycloalkyl, amino, C 1 -C 6 alkylamino and halogen.
A disconnect device (1, 1A, 1B, 1C, 1D) comprising: a conductor connectable to an external conductive path; a housing including an internal space, the internal space accommodating at least a part of the conductor; and a cooling body that is disposed in the internal space and configured to cool an arc generated in the internal space, wherein the cooling body includes a porous body configured with at least one of a metal oxide and an inorganic oxide; a gas generator configured to generate gas by combustion of fuel; and an operation pin (8, 8C) that is accommodated in the internal space, is disposed above the conductor, and is caused to move downward by a pressure of the gas generated in the gas generator, wherein the conductor includes a terminal portion (21, 22) and a separation portion, the terminal portion (21, 22) is held by the housing and is connected to the external conductive path, the separation portion is accommodated in the internal space of the housing and becomes separated from the terminal portion (21, 22), as the pin (8, 8C) moves downward, and the cooling body configured to cool an arc generated when the separation portion is separated from the terminal portion (21, 22), characterized in that the porous body has a fibrous structure and is deformable. a conductor connectable to an external conductive path; a housing including an internal space, the internal space accommodating at least a part of the conductor; and a cooling body that is disposed in the internal space and configured to cool an arc generated in the internal space, wherein the cooling body includes a porous body configured with at least one of a metal oxide and an inorganic oxide; a gas generator configured to generate gas by combustion of fuel; and an operation pin (8, 8C) that is accommodated in the internal space, is disposed above the conductor, and is caused to move downward by a pressure of the gas generated in the gas generator, wherein the conductor includes a terminal portion (21, 22) and a separation portion, the terminal portion (21, 22) is held by the housing and is connected to the external conductive path, the separation portion is accommodated in the internal space of the housing and becomes separated from the terminal portion (21, 22), as the pin (8, 8C) moves downward, and the cooling body configured to cool an arc generated when the separation portion is separated from the terminal portion (21, 22), characterized in that the porous body has a fibrous structure and is deformable.
A vacuum cleaner comprising a main body to have a dust separating apparatus and a suction nozzle to draw in a dust or dirt from a surface to be cleaned, the suction nozzle comprising: a suction opening through which an air is drawn in from a surface to be cleaned; a sterilization chamber; and a first suction nozzle sterilization unit, characterized in that: the sterilization chamber has at least one inlet and at least one outlet, wherein the sterilization chamber forms a cylindrical shape, the sterilization chamber is in fluid communication with the suction opening through the at least one inlet; and the first suction nozzle sterilization unit is disposed in the sterilization chamber to sterilize the air drawn into the sterilization chamber, wherein the air drawn into the sterilization chamber revolves while moving from the at least one inlet to the at least one outlet. a suction opening through which an air is drawn in from a surface to be cleaned; a sterilization chamber; and a first suction nozzle sterilization unit, characterized in that: the sterilization chamber has at least one inlet and at least one outlet, wherein the sterilization chamber forms a cylindrical shape, the sterilization chamber is in fluid communication with the suction opening through the at least one inlet; and the first suction nozzle sterilization unit is disposed in the sterilization chamber to sterilize the air drawn into the sterilization chamber, the sterilization chamber has at least one inlet and at least one outlet, wherein the sterilization chamber forms a cylindrical shape, the sterilization chamber is in fluid communication with the suction opening through the at least one inlet; and the first suction nozzle sterilization unit is disposed in the sterilization chamber to sterilize the air drawn into the sterilization chamber, wherein the air drawn into the sterilization chamber revolves while moving from the at least one inlet to the at least one outlet.
Method for distributing electrical energy in an electricity network, in which a plurality of users (3a, 3b, 3c, 3d, 3x), each of which has at least one consumer (5, 10), are connected to an energy supplier via an electricity network and in which individual controllable consumers are controlled to adjust the flow of electricity, wherein the users are households and/or commercial enterprises, wherein at least one group (12, 23) of users (3a, 3b, 3c, 3d) exists, to each of which a communication unit is assigned which controls controllable consumers of the respective user (3a, 3b, 3c, 3d), characterised in in that the communication unit exchanges information about the energy requirement of the user (3a, 3b, 3c, 3d) with other communication units in order to adapt this to the requirements of the energy supplier, and in that the users (3a, 3b, 3c, 3d) of a group (12, 23) are supplied by the energy supplier via the same supply line (2, 22), and in that at least one user is assigned at least one energy generation unit which is also controlled by its communication unit, and in that electricity from the energy generation unit is fed into the power grid in the event of a surplus.
A method for synthesizing an oxetane derivative in a microreactor, the oxetane derivative having the structure shown in Formula: wherein R is a C2 to C12 linear or branched alkyl, an alkyl containing ethylene oxide structure, an alkyl containing oxetane structure, phenyl, tolyl, benzyl, or biphenyl, and n is 1-4; characterized in that the method comprises: feeding 3-ethyl-3-hydroxymethyloxetane, a raw material Ha, a catalyst, and a base into a microreactor comprising a reaction channel having an inner diameter of 200 to 10,000 μm, for etherification reaction to obtain an etherification product, wherein the raw material Ha has a general formula of R- n, and X is halogen; and submitting the etherification product to separation to obtain the oxetane derivative. wherein R is a C2 to C12 linear or branched alkyl, an alkyl containing ethylene oxide structure, an alkyl containing oxetane structure, phenyl, tolyl, benzyl, or biphenyl, and n is 1-4; characterized in that the method comprises: feeding 3-ethyl-3-hydroxymethyloxetane, a raw material Ha, a catalyst, and a base into a microreactor comprising a reaction channel having an inner diameter of 200 to 10,000 μm, for etherification reaction to obtain an etherification product, wherein the raw material Ha has a general formula of R- n, and X is halogen; and submitting the etherification product to separation to obtain the oxetane derivative. feeding 3-ethyl-3-hydroxymethyloxetane, a raw material Ha, a catalyst, and a base into a microreactor comprising a reaction channel having an inner diameter of 200 to 10,000 μm, for etherification reaction to obtain an etherification product, wherein the raw material Ha has a general formula of R- n, and X is halogen; and submitting the etherification product to separation to obtain the oxetane derivative.
A nuclear reactor containment seal (200, 200A) for sealing an opening of a containment vessel, comprising: a lower body including an opening configured for attaching over the opening of the containment vessel; a nut attached to the lower body; and an upper body including a hole to receive a cable or tube, the upper body configured to insert at least partially down into the opening in the lower body, so that the cable or tube can extend through the upper body and the lower body into the containment vessel, and the nut configured to hold the upper body down against the lower body to form a sealed connection between the upper body and the lower body, characterized in that the upper body includes a bottom tubular section positioned to extend down through and at least partially below the opening in the lower body and into the containment vessel; and a middle section that extends up and radially out from the bottom tubular section forming a bottom surface that seats onto a top surface of the lower body. a lower body including an opening configured for attaching over the opening of the containment vessel; a nut attached to the lower body; and an upper body including a hole to receive a cable or tube, the upper body configured to insert at least partially down into the opening in the lower body, so that the cable or tube can extend through the upper body and the lower body into the containment vessel, and the nut configured to hold the upper body down against the lower body to form a sealed connection between the upper body and the lower body, characterized in that the upper body includes a bottom tubular section positioned to extend down through and at least partially below the opening in the lower body and into the containment vessel; and a middle section that extends up and radially out from the bottom tubular section forming a bottom surface that seats onto a top surface of the lower body.
A stowable garment system comprising: a belt structure having a pouch positioned on a front aspect of the belt structure; and an upper-body garment comprising a front section, a back section, and a bottom margin, wherein a portion of the front section is attached to the pouch, and wherein the back section comprises a first tab extending from the bottom margin at a first side of the back section and a second tab extending from the bottom margin at a second opposite side of the back section; characterized in that: the stowable garment system further comprising a first looped cord segment extending from the first tab; and wherein the pouch is formed by at least: a panel attached to the belt structure, the panel having a top side, a bottom side, a first side, and a second side opposite the first side; a first flap extending from the top side of the panel and having a first hole extending therethrough; and a fourth flap extending from the bottom side of the panel and having a second looped cord segment attached thereto, the second looped cord segment extending through the first hole and receiving the first looped cord segment of the first tab when the pouch is in a closed state and the upper-body garment is stowed within the pouch. the stowable garment system further comprising a first looped cord segment extending from the first tab; and wherein the pouch is formed by at least: a panel attached to the belt structure, the panel having a top side, a bottom side, a first side, and a second side opposite the first side; a first flap extending from the top side of the panel and having a first hole extending therethrough; and a fourth flap extending from the bottom side of the panel and having a second looped cord segment attached thereto, the second looped cord segment extending through the first hole and receiving the first looped cord segment of the first tab when the pouch is in a closed state and the upper-body garment is stowed within the pouch.
An eNB comprising: a configuration unit for configuring a configuration for a new physical uplink control channel, PUCCH, format different from a PUCCH format 3; and a sending unit for sending, in RRC signaling, the configuration to a UE; wherein the PUCCH format 3 occupies two physical resource blocks, PRBs; the configuration contains information of Hybrid Automatic Retransmission Request, HARQ, feedback of 32 Component Carriers, CCs; characterized in that the configuration includes a parameter indicating a starting position of continuous PRBs in a time slot for the new PUCCH format and a parameter indicating the number of continuous PRBs, and the new PUCCH format occupies the continuous PRBs in the time slot. a configuration unit for configuring a configuration for a new physical uplink control channel, PUCCH, format different from a PUCCH format 3; and a sending unit for sending, in RRC signaling, the configuration to a UE; wherein the PUCCH format 3 occupies two physical resource blocks, PRBs; the configuration contains information of Hybrid Automatic Retransmission Request, HARQ, feedback of 32 Component Carriers, CCs; characterized in that the configuration includes a parameter indicating a starting position of continuous PRBs in a time slot for the new PUCCH format and a parameter indicating the number of continuous PRBs, and the new PUCCH format occupies the continuous PRBs in the time slot.