mhurhangee/ep-ind-claims huggingface dataset:
A vacuum pumping system (100; 200; 300) comprising: - a vacuum pump, comprising a pump casing defining a stationary pump stator and housing a rotatable pump rotor, said pump stator and said pump rotor cooperating with each other for pumping a fluid from a pump inlet to a pump outlet; and - a motor, comprising a motor casing in which a stationary motor stator and a rotatable motor rotor are received, said motor stator and said motor rotor cooperating with each other for driving in rotation said pump rotor by means of a drive shaft; wherein said vacuum pump is an oil-lubricated vacuum pump, and wherein the system (100; 200; 300) further comprises an oil-tight unit (50; 150; 250; 60, 70; 80, 90) arranged to enclose at least a portion of the motor rotor and forming at least part of a container intended to collect and keep inside the motor any oil leaking from the pump, said unit (50; 150; 250; 60, 70; 80, 90) having at least a portion (53; 160; 180; 60; 80) clamped between the motor casing and the pump casing; characterized in that said unit comprises a first and a second disc-shaped components (60, 70; 80, 90) accommodating opposite axial end portions of both the motor stator and the motor rotor and forming, together with the motor stator, the container intended to collect and keep inside the motor any oil leaking from the pump, the first component (60; 80) forming the portion of the unit clamped between the motor casing and the pump casing, and engaging in oil-tight manner a complementarily shaped axial recess formed in the pump casing. - a vacuum pump, comprising a pump casing defining a stationary pump stator and housing a rotatable pump rotor, said pump stator and said pump rotor cooperating with each other for pumping a fluid from a pump inlet to a pump outlet; and - a motor, comprising a motor casing in which a stationary motor stator and a rotatable motor rotor are received, said motor stator and said motor rotor cooperating with each other for driving in rotation said pump rotor by means of a drive shaft; wherein said vacuum pump is an oil-lubricated vacuum pump, and wherein the system (100; 200; 300) further comprises an oil-tight unit (50; 150; 250; 60, 70; 80, 90) arranged to enclose at least a portion of the motor rotor and forming at least part of a container intended to collect and keep inside the motor any oil leaking from the pump, said unit (50; 150; 250; 60, 70; 80, 90) having at least a portion (53; 160; 180; 60; 80) clamped between the motor casing and the pump casing; characterized in that said unit comprises a first and a second disc-shaped components (60, 70; 80, 90) accommodating opposite axial end portions of both the motor stator and the motor rotor and forming, together with the motor stator, the container intended to collect and keep inside the motor any oil leaking from the pump, the first component (60; 80) forming the portion of the unit clamped between the motor casing and the pump casing, and engaging in oil-tight manner a complementarily shaped axial recess formed in the pump casing.
A prelithiation device for bonding a lithium ribbon to a substrate, the prelithiation device comprising: a bonding mechanism comprising a first roller, a second roller and a third roller, which are sequentially disposed adjacent to each other, the first roller and the second roller being used to roll the lithium ribbon, with the rolled lithium ribbon adhering to the second roller, and the second roller and the third roller being used to bond the lithium ribbon adhering to the second roller to the substrate, the lithium ribbon comprising two first surfaces opposite each other in a width direction of the lithium ribbon and a second surface facing the second roller; characterised in that the prelithiation device further comprises: a coating mechanism disposed upstream of the bonding mechanism in a running direction of the lithium ribbon and configured to simultaneously coat the second surface and at least one of the first surfaces with a release agent. a bonding mechanism comprising a first roller, a second roller and a third roller, which are sequentially disposed adjacent to each other, the first roller and the second roller being used to roll the lithium ribbon, with the rolled lithium ribbon adhering to the second roller, and the second roller and the third roller being used to bond the lithium ribbon adhering to the second roller to the substrate, the lithium ribbon comprising two first surfaces opposite each other in a width direction of the lithium ribbon and a second surface facing the second roller;
A spacer device for providing a space between an object and a layer of pieces of insulation material applied around the object, the spacer device comprising a flexible metal strip, and plastic spacer elements molded to the metal strip and forming protrusions protruding from the metal strip on a first side thereof, wherein the metal strip comprises strip attachment portions, wherein the spacer elements comprise spacer attachment portions, wherein each strip attachment portion is embedded in a respective spacer attachment portion, wherein the spacer device is arranged to be mounted at a surface of the object with the first side facing that surface, such that the spacer elements abut against the surface, characterised in that each strip attachment portion comprises a seat, which comprises a hole, wherein the seat is recessed from the second side of the metal strip, and wherein each spacer attachment portion extends through the hole and has a head portion resting in the seat at a second side of the metal strip, opposite to the first side.
An interactive multimedia broadcasting system with - an end-user terminal adapted to receive channels of multimedia data, - a content server adapted to transmit a predetermined number of said channels (TV Channels 1... n) to said terminal, - an interactivity database adapted to receive, from said content server, notices of available interactivity on the channel transmitted to said terminal, and - an interactivity server adapted to be controlled by said interactivity database and adapted to transmit interactive items (Interactivity 1, Interactivity 2, Interactivity 3) to said terminal and to receive feedback from said terminal, said feedback relating to the acceptance, by the user of said terminal, of interactive data proposed by said interactive items, whereby said content server is adapted, upon acceptance by the user of said end-user terminal, to transmit said interactive data to said terminal on an extra channel, characterized in that said system further comprises a community content manager adapted for keeping track of the content linked to said extra channel and for keeping track of subscriptions to said extra channel. - an end-user terminal adapted to receive channels of multimedia data, - a content server adapted to transmit a predetermined number of said channels (TV Channels 1... n) to said terminal, - an interactivity database adapted to receive, from said content server, notices of available interactivity on the channel transmitted to said terminal, and - an interactivity server adapted to be controlled by said interactivity database and adapted to transmit interactive items (Interactivity 1, Interactivity 2, Interactivity 3) to said terminal and to receive feedback from said terminal, said feedback relating to the acceptance, by the user of said terminal, of interactive data proposed by said interactive items, whereby said content server is adapted, upon acceptance by the user of said end-user terminal, to transmit said interactive data to said terminal on an extra channel, characterized in that said system further comprises a community content manager adapted for keeping track of the content linked to said extra channel and for keeping track of subscriptions to said extra channel.
A dispatchable renewable power supply having a total dispatchable power output P D of at least 25 kW, the dispatchable power supply comprising: (i) a base power generator selected from at least one of the group consisting of: a hydroelectric power generator, and a geothermal power generator; (ii) a secondary power generator comprising at least one renewable power generator; (iii) a battery; and (iv) power transmission means for communicating the generated power to at least one consumer, wherein each of the power generators is non-dispatchable, wherein: (a) the dispatchable power supply has a peak instantaneous non-base required power output P M-Peak equal to the total dispatchable power output P D minus the minimum instantaneous power output from the base power generator P B-Low, and (b) the secondary power generator has a capacity factor CF Secondary, characterized in that (c) a total installed power generating capacity of the secondary power generator P Secondary-Installed is equal to P M-Peak × (1/CF Secondary). (i) a base power generator selected from at least one of the group consisting of: a hydroelectric power generator, and a geothermal power generator; (ii) a secondary power generator comprising at least one renewable power generator; (iii) a battery; and (iv) power transmission means for communicating the generated power to at least one consumer, (a) the dispatchable power supply has a peak instantaneous non-base required power output P M-Peak equal to the total dispatchable power output P D minus the minimum instantaneous power output from the base power generator P B-Low, and (b) the secondary power generator has a capacity factor CF Secondary, characterized in that (c) a total installed power generating capacity of the secondary power generator P Secondary-Installed is equal to P M-Peak × (1/CF Secondary).
A sensor, comprising: - a sensor element; - electrical leads; whereby the sensor element is connected to the electrical leads; - a housing; whereby the housing has an opening and the sensor element is arranged in the housing such that the electrical leads protrude from the opening; and whereby the electrical leads have kinks in a portion that is located inside of the housing; - epoxy resin; whereby the housing is filled with the epoxy resin and the epoxy resin fixes the sensor element and the electrical leads in the housing, characterized in that the housing has two grooves on an inner surface of the housing which extend from the opening along a longitudinal axis into the housing, and in that the electrical leads are arranged in the grooves and a lateral force is generated by the kinks of the electrical leads which supports a latching of the electrical leads in the grooves. - a sensor element; - electrical leads; whereby the sensor element is connected to the electrical leads; - a housing; whereby the housing has an opening and the sensor element is arranged in the housing such that the electrical leads protrude from the opening; and whereby the electrical leads have kinks in a portion that is located inside of the housing; - epoxy resin; whereby the housing is filled with the epoxy resin and the epoxy resin fixes the sensor element and the electrical leads in the housing, characterized in that the housing has two grooves on an inner surface of the housing which extend from the opening along a longitudinal axis into the housing, and in that the electrical leads are arranged in the grooves and a lateral force is generated by the kinks of the electrical leads which supports a latching of the electrical leads in the grooves. whereby the housing is filled with the epoxy resin and the epoxy resin fixes the sensor element and the electrical leads in the housing, characterized in that the housing has two grooves on an inner surface of the housing which extend from the opening along a longitudinal axis into the housing, and in that the electrical leads are arranged in the grooves and a lateral force is generated by the kinks of the electrical leads which supports a latching of the electrical leads in the grooves.
An object conveying system comprising; a guide plate having at least two channels for conveying an object between a first end and a second end of the corresponding channels, wherein the at least two channels comprise a first aperture provided at a first longitudinal position thereof, an object measurement unit for conducting an optical measurement associated with a property of the object via the first aperture when the object passes the first aperture towards the second end, at least one ejector unit arranged to eject the object conveyed on the corresponding channel when reaching a second longitudinal position (P2, P2') on the guide plate located downstream of the first aperture based on the measured property of the object and a timing signal associated with a conveying velocity of the object being conveyed along the channel, characterized by wherein the at least two channels comprise a longitudinally extending base and a pair of sidewalls (112, 113) arranged along either of the base for limiting the movement of the object in a lateral direction when being conveyed longitudinally along the base, and wherein an additional aperture is arranged at the second position (P2, P2') for receiving a fluid jet stream. a guide plate having at least two channels for conveying an object between a first end and a second end of the corresponding channels, wherein the at least two channels comprise a first aperture provided at a first longitudinal position thereof, an object measurement unit for conducting an optical measurement associated with a property of the object via the first aperture when the object passes the first aperture towards the second end, at least one ejector unit arranged to eject the object conveyed on the corresponding channel when reaching a second longitudinal position (P2, P2') on the guide plate located downstream of the first aperture based on the measured property of the object and a timing signal associated with a conveying velocity of the object being conveyed along the channel, characterized by wherein the at least two channels comprise a longitudinally extending base and a pair of sidewalls (112, 113) arranged along either of the base for limiting the movement of the object in a lateral direction when being conveyed longitudinally along the base, and wherein an additional aperture is arranged at the second position (P2, P2') for receiving a fluid jet stream.
Bone implant system having - a base body, having or consisting of a load-bearing material, and - a plurality of shaped bodies and/or a support structure, the base body being designed as a hollow body open on both sides in an axial direction A, and the shaped bodies being connectable to the base body in such a way that the shaped bodies protrude in the radial direction from the base body, and/or the support structure being connectable to the base body in such a way that the support structure is radially spaced from the base body, characterized in that the base body has predetermined breaking lines which extend along the longitudinal axis of the base body and which, after being broken, release slits extending along the longitudinal axis of the base body. - a base body, having or consisting of a load-bearing material, and - a plurality of shaped bodies and/or a support structure,
A static mixer comprising: a conduit section having a channel and an injector opening through an inner wall 16) thereof; a tab having a main portion extending from the inner wall adjacent and downstream of the opening and extending radially inwardly and at an angle away from the opening in the downstream direction, characterized in the tab having at least one finger (28, 30) extending at a non-zero angle from the main portion; and the main portion and the at least one finger (28, 30) being configured such that a second fluid injected through the injector opening and into a first fluid flowing through the conduit section flows radially along the main portion toward a center of the conduit section, and radially outward from the main portion along the at least one finger, (28, 30) whereby the first fluid and the second fluid are thoroughly mixed as a result of turbulence imparted by the tab (28, 30) to the first fluid and the second fluid. a conduit section having a channel and an injector opening through an inner wall 16) thereof; a tab having a main portion extending from the inner wall adjacent and downstream of the opening and extending radially inwardly and at an angle away from the opening in the downstream direction, characterized in the tab having at least one finger (28, 30) extending at a non-zero angle from the main portion; and the main portion and the at least one finger (28, 30) being configured such that a second fluid injected through the injector opening and into a first fluid flowing through the conduit section flows radially along the main portion toward a center of the conduit section, and radially outward from the main portion along the at least one finger, (28, 30) whereby the first fluid and the second fluid are thoroughly mixed as a result of turbulence imparted by the tab (28, 30) to the first fluid and the second fluid.
An optical power monitor device comprising: an optical fiber comprising a core and a cladding surrounding the core, the optical fiber comprising an incidence-side optical fiber and a launch-side optical fiber connected to each other at a connection point and at least one of said incidence-side optical fiber and said launch-side optical fiber being a first optical fiber (2;3) constituted by a curve portion (2B;3B) and a linear portion (2A;3A) positioned between the curve portion (2B;3B) and the connection point; a low refractive index layer that is provided in at least a part of the linear portion on an outer side of the cladding and has a refractive index lower than a refractive index of the cladding; and a first optical detector that is provided at a position where the first optical detector is able to detect laser light leaking out from the curve portion, wherein the low refractive index layer is continuously disposed along the linear portion (2A,3A) and the curve portion (2B;3B), and the low refractive index layer contacts the cladding. an optical fiber comprising a core and a cladding surrounding the core, the optical fiber comprising an incidence-side optical fiber and a launch-side optical fiber connected to each other at a connection point and at least one of said incidence-side optical fiber and said launch-side optical fiber being a first optical fiber (2;3) constituted by a curve portion (2B;3B) and a linear portion (2A;3A) positioned between the curve portion (2B;3B) and the connection point; a low refractive index layer that is provided in at least a part of the linear portion on an outer side of the cladding and has a refractive index lower than a refractive index of the cladding; and a first optical detector that is provided at a position where the first optical detector is able to detect laser light leaking out from the curve portion, wherein the low refractive index layer is continuously disposed along the linear portion (2A,3A) and the curve portion (2B;3B), and the low refractive index layer contacts the cladding.
Protector for animal hooves, especially for horse hooves, composed of a lower cover that can be coupled to the base of the foot of the animal and of an upper wall that can be attached to the lateral surface of the hoof, to which it is affixed by means of adhesive, characterized in that it also comprises a heel with a laminar structure, made from rubber, and a frontal connection plate between the lower cover and the heel, made from a thermoplastic material; which heel comprises a posterior zone formed to adapt to the posterior zone of the foot, an anterior extension with a contour approximately matching the contour of the inner surface of the sole of the lower cover, which is attached and affixed by means of adhesive to said inner surface, and a series of lateral lugs protruding from the posterior zone; and which frontal piece has an approximately triangular contour, formed by an anterior tab attached and affixed to the wall of the lower cover and two symmetrical posterior extensions attached to the sides of the hoof; the wall of the lower cover, the two posterior extensions of the frontal piece and the lateral lugs of the heel having mutual affixing means.
A charging member comprising: a conductive support; a conductive elastomer layer stacked on the conductive support; and a conductive resin layer stacked on the conductive elastomer layer, wherein the conductive resin layer comprises: a matrix material; and a plurality of particles dispersed in the matrix material, wherein, the plurality of particles comprise first particles, and when a thickness of a portion formed of the matrix material alone of the conductive resin layer is referred to as A [μm], an average particle size of the first particles is referred to as B 1 [μm], and an interparticle distance of the particles is referred to as Sm [μm], then A is in a range of 1.0 μm to 7.0 μm, B 1 /A is in a range of 5.0 to 30.0, and Sm is in a range of 50 μm to 400 μm; wherein the average particle size is obtained by randomly selecting 100 particles from a group of a plurality of particles from scanning electron microscope observation and calculating an average value of the sizes of the particles and wherein when a particle diameter is not consistent, a simple average value of the longest diameter and the shortest diameter is determined as the particle size; and wherein the interparticle distance is measured by using a method according to JIS B0601-1994 with a surface roughness tester with a cut-off of 0.8 mm and a measurement length of 8 mm using an average value of 6 randomly selected spots. a conductive support; a conductive elastomer layer stacked on the conductive support; and a conductive resin layer stacked on the conductive elastomer layer, wherein the conductive resin layer comprises: a matrix material; and a plurality of particles dispersed in the matrix material, wherein, the plurality of particles comprise first particles, and a matrix material; and a plurality of particles dispersed in the matrix material, wherein, the plurality of particles comprise first particles, and when a thickness of a portion formed of the matrix material alone of the conductive resin layer is referred to as A [μm], an average particle size of the first particles is referred to as B 1 [μm], and an interparticle distance of the particles is referred to as Sm [μm], then A is in a range of 1.0 μm to 7.0 μm, B 1 /A is in a range of 5.0 to 30.0, and Sm is in a range of 50 μm to 400 μm; wherein the average particle size is obtained by randomly selecting 100 particles from a group of a plurality of particles from scanning electron microscope observation and calculating an average value of the sizes of the particles and wherein when a particle diameter is not consistent, a simple average value of the longest diameter and the shortest diameter is determined as the particle size; and wherein the interparticle distance is measured by using a method according to JIS B0601-1994 with a surface roughness tester with a cut-off of 0.8 mm and a measurement length of 8 mm using an average value of 6 randomly selected spots.