mhurhangee/ep-ind-claims huggingface dataset:
An elevator safety gear actuation device for actuating an elevator safety gear, the elevator safety gear actuation device comprising: a first member; and a second member; wherein the first and second members (23, 25) are arranged opposite to each other defining a gap for accommodating a guide member (14, 15) extending in a longitudinal direction; wherein the first member comprises an engagement element which is movable between a disengaged position and an engaged position, wherein the engagement element comprises at least one permanent magnet configured for being magnetically attracted by the guide member (14, 15) extending through the gap and attaching to the guide member (14, 15), when the engagement element is arranged in the engaged position; and wherein the second member comprises at least one additional permanent magnet configured for being magnetically attracted by the guide member (14, 15); characterized in that the at least one additional permanent magnet is configured for not attaching to the guide member (14, 15) when the engagement element is positioned in the engaged position. a first member; and a second member; wherein the first and second members (23, 25) are arranged opposite to each other defining a gap for accommodating a guide member (14, 15) extending in a longitudinal direction; wherein the first member comprises an engagement element which is movable between a disengaged position and an engaged position, wherein the engagement element comprises at least one permanent magnet configured for being magnetically attracted by the guide member (14, 15) extending through the gap and attaching to the guide member (14, 15), when the engagement element is arranged in the engaged position; and wherein the second member comprises at least one additional permanent magnet configured for being magnetically attracted by the guide member (14, 15); characterized in that the at least one additional permanent magnet is configured for not attaching to the guide member (14, 15) when the engagement element is positioned in the engaged position.
A laundry treating apparatus comprising: a housing forming an appearance of the laundry treating apparatus; a drawer movable from the housing, the drawer having a space formed therein; and a drying rack fixed to a surface of the space to be unfolded to the other surface of the space or to be folded to the surface of the space, characterised in that the drying rack comprises: a plurality of plate-shaped members; and a hinge rotatably connecting the plate-shaped members with each other, wherein each one of the plate-shaped members is adapted to be rotated in the opposite direction to its neighboring one, connected with its neighboring member by the hinge, so as to form crests and troughs when the drying rack is unfolded in the space, and shaped such that the crests and troughs form a curved surface with a predetermined curvature when the drying rack is unfolded in the space of the drawer. a housing forming an appearance of the laundry treating apparatus; a drawer movable from the housing, the drawer having a space formed therein; and a drying rack fixed to a surface of the space to be unfolded to the other surface of the space or to be folded to the surface of the space, characterised in that the drying rack comprises: a plurality of plate-shaped members; and a hinge rotatably connecting the plate-shaped members with each other, wherein each one of the plate-shaped members is adapted to be rotated in the opposite direction to its neighboring one, connected with its neighboring member by the hinge, so as to form crests and troughs when the drying rack is unfolded in the space, and shaped such that the crests and troughs form a curved surface with a predetermined curvature when the drying rack is unfolded in the space of the drawer. a plurality of plate-shaped members; and a hinge rotatably connecting the plate-shaped members with each other, wherein each one of the plate-shaped members is adapted to be rotated in the opposite direction to its neighboring one, connected with its neighboring member by the hinge, so as to form crests and troughs when the drying rack is unfolded in the space, and shaped such that the crests and troughs form a curved surface with a predetermined curvature when the drying rack is unfolded in the space of the drawer.
Use of an anionic lignin-carbohydrate complex, where lignin and carbohydrate are covalently bound with each other, in amount of 0.1 - 5 kg/ton dry fibre, for adjusting of zeta potential of an aqueous fibre stock in manufacture of paper, board, tissue of the like, wherein the anionic lignin-carbohydrate complex comprises at least 10 weight-% of carbohydrate, calculated from total dry weight of the complex, and anionic functional groups selected from sulphonate groups, carboxyl groups and/or phenolic groups; and wherein the anionic lignin-carbohydrate complex has a lignin:carbohydrate ratio from 90:10 to 10:90, a weight average molecular weight MW >3500 g/mol, and an anionic charge density less than -0.2 meq/g, measured at pH 7.
A motor rotational angle detection device comprising: at least four motor rotational angle detection units (6, 7, 42, 43) configured to detect a rotational angle of a motor; wherein the four motor rotational angle detection units (6, 7, 42, 43) are formed as two pairs of motor rotational angle detection units, and wherein the motor rotational angle detection device is characterized by being configured to identify, when a difference is detected between motor rotational angles, which are outputted from the motor rotational angle detection units (6, 7), in any pair of the two pairs of motor rotational angle detection units, the pair of motor rotational angle detection units (42, 43), in which a difference is not detected, as the normal motor rotational angle detection units, and to inform the outside, when another difference is detected between motor rotational angles, which are outputted from the pairs of motor rotational angle detection units (42, 43), in the pair of motor rotational angle detection units (42, 43) which are identified as the normal motor rotational angle detection units, of an abnormality of the motor rotational angle detection device. at least four motor rotational angle detection units (6, 7, 42, 43) configured to detect a rotational angle of a motor; wherein the four motor rotational angle detection units (6, 7, 42, 43) are formed as two pairs of motor rotational angle detection units, and wherein the motor rotational angle detection device is characterized by being configured to identify, when a difference is detected between motor rotational angles, which are outputted from the motor rotational angle detection units (6, 7), in any pair of the two pairs of motor rotational angle detection units, the pair of motor rotational angle detection units (42, 43), in which a difference is not detected, as the normal motor rotational angle detection units, and to inform the outside, when another difference is detected between motor rotational angles, which are outputted from the pairs of motor rotational angle detection units (42, 43), in the pair of motor rotational angle detection units (42, 43) which are identified as the normal motor rotational angle detection units, of an abnormality of the motor rotational angle detection device.
Transparent pane, comprising at least one transparent substrate and at least one electrically conductive coating on at least one surface of the transparent substrate, wherein - the electrically conductive coating has at least two functional layers arranged one above the other and each functional layer comprises at least ∘ one layer of an optically highly refractive material, ∘ above the layer of an optically highly refractive material, a smoothing layer, which contains at least one non-crystalline oxide, ∘ above the smoothing layer, a first matching layer, ∘ above the first matching layer, an electrically conductive layer, and ∘ above the electrically conductive layer, a second matching layer, - the total layer thickness of all the electrically conductive layers is from 40 nm to 75 nm, and - the electrically conductive coating has a sheet resistance less than 1 ohm/square, characterised in that the layer of an optically highly refractive material has a refractive index greater than or equal to 2.1 and contains at least one mixed silicon/metal nitride. - the electrically conductive coating has at least two functional layers arranged one above the other and each functional layer comprises at least ∘ one layer of an optically highly refractive material, ∘ above the layer of an optically highly refractive material, a smoothing layer, which contains at least one non-crystalline oxide, ∘ above the smoothing layer, a first matching layer, ∘ above the first matching layer, an electrically conductive layer, and ∘ above the electrically conductive layer, a second matching layer, ∘ one layer of an optically highly refractive material, ∘ above the layer of an optically highly refractive material, a smoothing layer, which contains at least one non-crystalline oxide, ∘ above the smoothing layer, a first matching layer, ∘ above the first matching layer, an electrically conductive layer, and ∘ above the electrically conductive layer, a second matching layer, - the total layer thickness of all the electrically conductive layers is from 40 nm to 75 nm, and - the electrically conductive coating has a sheet resistance less than 1 ohm/square,
A virtual meter for acting as an interface between a legacy utility meter and a smart energy network, the virtual meter, the utility meter, and the smart energy network being deployed together at the same site, the smart energy network comprising a collection of smart energy devices that monitor, control, or report on energy use at the site, the virtual meter comprising a controller configured to: communicate, with the utility meter, to receive meter information using a first communications protocol; translate between meter information and virtual meter information, the virtual meter information conforming to a smart energy meter standard used in the smart energy network; and communicate, to the smart energy network, the virtual meter information using a second communications protocol in order to present the utility meter as a SE meter to the SE network, wherein the first communications protocol is an automatic meter reading protocol incompatible with the SE network and wherein the second communications protocol is used for communicating with SE meters over the SE network. communicate, with the utility meter, to receive meter information using a first communications protocol; translate between meter information and virtual meter information, the virtual meter information conforming to a smart energy meter standard used in the smart energy network; and communicate, to the smart energy network, the virtual meter information using a second communications protocol in order to present the utility meter as a SE meter to the SE network, wherein the first communications protocol is an automatic meter reading protocol incompatible with the SE network and wherein the second communications protocol is used for communicating with SE meters over the SE network.
A hockey stick blade system comprising: a. a composite hockey stick blade; and b. a focused weight system characterized in that said weight system is co-molded to an external surface of the cured composite hockey stick blade, wherein the focused weight system includes an encapsulant material and one or more weighted components (302, 303, 304) at least partially encapsulated in the encapsulant material. a. a composite hockey stick blade; and b. a focused weight system characterized in that said weight system is co-molded to an external surface of the cured composite hockey stick blade, wherein the focused weight system includes an encapsulant material and one or more weighted components (302, 303, 304) at least partially encapsulated in the encapsulant material.
Satellite capable of being stationed in geostationary orbit around a planet in a plane that is inclined relative to the ecliptic plane, comprising a radiator, the radiator comprising: - at least one panel having at least one radiative surface (5,6) extending perpendicularly to a radiation axis, the panel being mounted so as to pivot relative to said radiation axis, - a mounting foot carrying the panel, and - a motor suitable for rotating the mounting foot about a rotation axis, wherein the radiation axis and the rotation axis are tilted relative to each other by an operating angle (α) corresponding to the angle of inclination of the satellite's orbital plane relative to the ecliptic plane, such that for any rotation of the mounting foot about the rotation axis, the radiative surface (5,6) remains parallel to the ecliptic plane, and wherein the radiator further comprises a guidance system for the panel, limiting rotation of the panel about the rotation axis, so as to maintain the panel in a given orientation relative to the satellite, characterized in that the panel guidance system comprises a connecting arm connecting the panel to the satellite, mounted so as to pivot relative to the satellite about a first axis, and mounted so as to pivot relative to the panel about a second axis concurrent with the first axis at a meeting point coincident with a point of intersection between the radiation axis and the rotation axis. - at least one panel having at least one radiative surface (5,6) extending perpendicularly to a radiation axis, the panel being mounted so as to pivot relative to said radiation axis, - a mounting foot carrying the panel, and - a motor suitable for rotating the mounting foot about a rotation axis, wherein the radiation axis and the rotation axis are tilted relative to each other by an operating angle (α) corresponding to the angle of inclination of the satellite's orbital plane relative to the ecliptic plane, such that for any rotation of the mounting foot about the rotation axis, the radiative surface (5,6) remains parallel to the ecliptic plane, and wherein the radiator further comprises a guidance system for the panel, limiting rotation of the panel about the rotation axis, so as to maintain the panel in a given orientation relative to the satellite, characterized in that the panel guidance system comprises a connecting arm connecting the panel to the satellite, mounted so as to pivot relative to the satellite about a first axis, and mounted so as to pivot relative to the panel about a second axis concurrent with the first axis at a meeting point coincident with a point of intersection between the radiation axis and the rotation axis.
A motorized expandable table, comprising at least one vertical column upperly supporting a table top: - when in a closed configuration the table top is defined only by main portions, whereas when in a open configuration the table top is defined only by said main portions, and by additional portions (22, 40); - the additional portions comprise outer additional portions and a central additional portion, said additional portions (22, 40) being entirely covered by and hidden below said main portions when in said close configuration; characterised in that - said outer additional portions are disposed radially about a support associated with said column, each outer additional portion being disposed, when in said closed configuration, such as to present an inclination, defined with reference to said vertical column, which is different from the outer additional portions; - driving means (16, 18, 27, 29, 34, 36, 42, 43) are provided associated with said main portions, with said support, with said outer additional portions and with said central additional portion for their movement, to enable the table to pass between said closed and said open configuration; - electronic control and management means are also provided for said driving means (18, 27, 36, 42). - when in a closed configuration the table top is defined only by main portions, whereas when in a open configuration the table top is defined only by said main portions, and by additional portions (22, 40); - the additional portions comprise outer additional portions and a central additional portion, said additional portions (22, 40) being entirely covered by and hidden below said main portions when in said close configuration; - said outer additional portions are disposed radially about a support associated with said column, each outer additional portion being disposed, when in said closed configuration, such as to present an inclination, defined with reference to said vertical column, which is different from the outer additional portions; - driving means (16, 18, 27, 29, 34, 36, 42, 43) are provided associated with said main portions, with said support, with said outer additional portions and with said central additional portion for their movement, to enable the table to pass between said closed and said open configuration; - electronic control and management means are also provided for said driving means (18, 27, 36, 42).
A method of transmitting data, the method comprising: Determining, by a base station, a group air interface identity corresponding to an Internet Protocol, IP, broadcast address or an IP multicast destination address; Configuring, by the base station, user equipments in a group with the group air interface identity; and Scheduling, by the base station, and transmitting data via an air interface over a specific group channel using the group air interface identity; wherein the specific group channel includes a logic channel Group Control Channel, GCCH, a logic channel Group Traffic Channel, GTCH, and a transport channel Group Channel, GCH, wherein the GCCH is configured to carry air interface configuration information of an IP multicast group, the GTCH is configured to carry IP multicast data packets with a same IP multicast destination address and with a same transmission characteristic or transmission characteristics in a same range; and the GCH is a point-to-multipoint transport channel configured to transport IP multicast data to all of user equipments in a group; and wherein the GCCH and the GTCH are mapped to the GCH and further to a Physical Downlink Shared Channel, PDSCH; or the GCCH and the GTCH are mapped to a Downlink Shared Channel, DL-SCH, and further to a Physical Downlink Shared Channel, PDSCH Determining, by a base station, a group air interface identity corresponding to an Internet Protocol, IP, broadcast address or an IP multicast destination address; Configuring, by the base station, user equipments in a group with the group air interface identity; and Scheduling, by the base station, and transmitting data via an air interface over a specific group channel using the group air interface identity; wherein the specific group channel includes a logic channel Group Control Channel, GCCH, a logic channel Group Traffic Channel, GTCH, and a transport channel Group Channel, GCH, wherein the GCCH is configured to carry air interface configuration information of an IP multicast group, the GTCH is configured to carry IP multicast data packets with a same IP multicast destination address and with a same transmission characteristic or transmission characteristics in a same range; and the GCH is a point-to-multipoint transport channel configured to transport IP multicast data to all of user equipments in a group; and wherein the GCCH and the GTCH are mapped to the GCH and further to a Physical Downlink Shared Channel, PDSCH; or the GCCH and the GTCH are mapped to a Downlink Shared Channel, DL-SCH, and further to a Physical Downlink Shared Channel, PDSCH
A method for determining water hardness comprising the steps of: a) Providing water to be analyzed on a surface; b) Applying a voltage to the water such that deposits are precipitated on the surface; characterized by the steps of: c) Determining the mass of the deposits by means of a surface acoustic wave sensor; d) Determining the water hardness from the mass determined in step c), wherein in additional steps c2) carried out after step b) the water hardness is additionally determined by means of a radiation source radiating the deposits and a radiation detector detecting radiation emitted from the deposits. a) Providing water to be analyzed on a surface; b) Applying a voltage to the water such that deposits are precipitated on the surface; characterized by the steps of: c) Determining the mass of the deposits by means of a surface acoustic wave sensor; d) Determining the water hardness from the mass determined in step c),
Device comprising a substrate comprising at least one microelectronic and/or nanoelectronic structure (NEMS) comprising at least one suspended portion and a fluid channel defined between said substrate and a cover, said fluid channel comprising two lateral walls (6.1) and an upper wall (6.2) connecting the two lateral walls (6.1) formed by said cover and a lower wall formed by said substrate and at least two openings in order to provide a circulation in said channel, said microelectronic and/or nanoelectronic structure being located inside the fluid channel, at least one electrical connection line extending between said microelectronic and/or nanoelectronic structure and the outside of the fluid channel, said electrical connection line being carried out on the substrate and passing under one of the lateral walls (6.1), said device further comprising an intermediate layer comprising a face in contact with base faces of said lateral walls (6.1), said face of the intermediate layer having an aptitude for sealing with the base faces, said connection line being covered by said intermediate layer at least immediately above the base face of said lateral wall (6.1), said lateral walls (6.1) being sealingly fixed on said substrate by sealing on said intermediate layer.
A polymer composition comprising: (a) a first ethylene-α-olefin copolymer and (b) a second ethylene-α-olefin copolymer, wherein (c) the first ethylene-α-olefin copolymer (a) has an ethylene content from about 60 to about 80 wt%; (d) the second ethylene-α-olefin copolymer (b) has an ethylene content of less than about 60 wt%; (e) the first ethylene-α-olefin copolymer (a) has a Melt Flow Rate Ratio (MFRR), defined as the ratio of the MFR measured at 230°C/21.6 kg and at 230°C/2.16 kg, of greater than 34 and has a Melt Flow Rate of 2.5 to 5.5 g/10 min measured by ASTM D 1238 condition L (230°C/2.16 kg), and (f) the blend of the first ethylene-α-olefin copolymer and the second ethylene-α-olefin copolymer has a MFRR of 33-37. (a) a first ethylene-α-olefin copolymer and (b) a second ethylene-α-olefin copolymer, wherein (c) the first ethylene-α-olefin copolymer (a) has an ethylene content from about 60 to about 80 wt%; (d) the second ethylene-α-olefin copolymer (b) has an ethylene content of less than about 60 wt%; (e) the first ethylene-α-olefin copolymer (a) has a Melt Flow Rate Ratio (MFRR), defined as the ratio of the MFR measured at 230°C/21.6 kg and at 230°C/2.16 kg, of greater than 34 and has a Melt Flow Rate of 2.5 to 5.5 g/10 min measured by ASTM D 1238 condition L (230°C/2.16 kg), and (f) the blend of the first ethylene-α-olefin copolymer and the second ethylene-α-olefin copolymer has a MFRR of 33-37.