mhurhangee/ep-ind-claims huggingface dataset:
An elevator car arrangement, which said arrangement comprises an elevator car body comprising a roof, a bottom and side walls, and an elevator car sling for being guided along vertically extending guide rails, said elevator car sling comprising at least a first vertical side support, a second vertical side support and an upper horizontal support, which said supports (3a, 3b, 3c) are connected to each other to form the sling, the elevator car body is connected to the elevator car sling such that the elevator car body is supported in the elevator car sling, the elevator car arrangement further comprising a connection element for connecting the elevator car body to the elevator car sling such that the connection element is arranged between the roof of the elevator car body and the vertical side support (3a, 3b) of the elevator car sling, whereby the connection element comprises a damper for damping vibrations caused by guide rails, and the connection element further comprises a first connection part connected to the vertical side support (3a, 3b) and a second connection part connected to the roof of the elevator car body, the damper comprising at least a first damper member arranged between the first connection part and the second connection part, and the first connection part comprises a vertical attachment plate connected to the vertical side support (3a, 3b) and a horizontal attachment plate extending from the vertical attachment plate, characterized in that the second connection part comprises an attachment part for connecting the second connection part to the roof of the elevator car body, an attachment plate and a cylinder arranged to extend between the attachment part and the attachment plate, and the first connection part and the second connection part are connected together with fastening means arranged through the horizontal attachment plate of the first connection part and at least through the attachment plate of the second connection part and through the first damper member arranged to extend between the horizontal attachment plate and the attachment plate. an elevator car body comprising a roof, a bottom and side walls, and an elevator car sling for being guided along vertically extending guide rails, said elevator car sling comprising at least a first vertical side support, a second vertical side support and an upper horizontal support, which said supports (3a, 3b, 3c) are connected to each other to form the sling,
A method of vertically assembling encapsulated single microbatteries, said microbatteries comprising each positive and negative electrodes, an electrolyte and positive and negative current collectors, said vertical assembly containing between the microbatteries an electrical insulation and/or sealing layer and a metal layer, said assembly method successively comprising: - a step of stacking and attaching at least two single microbatteries (13, 23), previously encapsulated, stacked on each other; - the forming of a metal layer (18a, 18b), capable of ensuring the electrical coupling of each of the metal layers (16a, 16b; 26a, 26b) of each of the encapsulated single microbatteries; each of the at least two encapsulated single microbatteries having been previously prepared by: ▪ forming at least one electrical insulation and/or sealing layer over at least a portion of the lateral sides and of the surface comprising the current collectors (12a, 12b; 22a, 22b) of a microbattery comprising positive and negative electrodes, an electrolyte, and positive and negative current collectors; ▪ making the current collectors (12a, 12b; 22a, 22b) of said microbattery accessible; ▪ forming a metal layer (16a, 16b; 26a, 26b) extending from the current collectors (12a, 12b; 22a, 22b) to the lateral sides of said microbattery. - a step of stacking and attaching at least two single microbatteries (13, 23), previously encapsulated, stacked on each other; - the forming of a metal layer (18a, 18b), capable of ensuring the electrical coupling of each of the metal layers (16a, 16b; 26a, 26b) of each of the encapsulated single microbatteries; ▪ forming at least one electrical insulation and/or sealing layer over at least a portion of the lateral sides and of the surface comprising the current collectors (12a, 12b; 22a, 22b) of a microbattery comprising positive and negative electrodes, an electrolyte, and positive and negative current collectors; ▪ making the current collectors (12a, 12b; 22a, 22b) of said microbattery accessible; ▪ forming a metal layer (16a, 16b; 26a, 26b) extending from the current collectors (12a, 12b; 22a, 22b) to the lateral sides of said microbattery.
A handheld tool for cleaning a star chamber in a rifle, the tool comprising: a. a paddle grip integral with a shank; b. a foam swab, affixed to the shank, substantially shaped like a T with a stem and an arm; i. wherein the arm comprises a first wing and a second wing; ii. wherein the first wing is substantially shaped like, but longer and wider than, a space formed by opposing faces (122, 124) and a first bottom land of two successive locking lugs (128, 130) of a star inlet of the star chamber; iii. wherein the second wing is substantially shaped like, but longer and wider than, a space formed by opposing faces (132, 134) and a second bottom land of two other successive locking lugs (138, 140) of the star inlet of a star chamber; wherein the first bottom land and the second bottom land are spaced apart 180° and c. wherein a free end of the paddle grip is a first end of the tool and a free end of the stem is a second end of the tool. a. a paddle grip integral with a shank; b. a foam swab, affixed to the shank, substantially shaped like a T with a stem and an arm; i. wherein the arm comprises a first wing and a second wing; ii. wherein the first wing is substantially shaped like, but longer and wider than, a space formed by opposing faces (122, 124) and a first bottom land of two successive locking lugs (128, 130) of a star inlet of the star chamber; iii. wherein the second wing is substantially shaped like, but longer and wider than, a space formed by opposing faces (132, 134) and a second bottom land of two other successive locking lugs (138, 140) of the star inlet of a star chamber; wherein the first bottom land and the second bottom land are spaced apart 180° and i. wherein the arm comprises a first wing and a second wing; ii. wherein the first wing is substantially shaped like, but longer and wider than, a space formed by opposing faces (122, 124) and a first bottom land of two successive locking lugs (128, 130) of a star inlet of the star chamber; iii. wherein the second wing is substantially shaped like, but longer and wider than, a space formed by opposing faces (132, 134) and a second bottom land of two other successive locking lugs (138, 140) of the star inlet of a star chamber; wherein the first bottom land and the second bottom land are spaced apart 180° and c. wherein a free end of the paddle grip is a first end of the tool and a free end of the stem is a second end of the tool.
Wind turbine rotor blade comprising a rotor blade root, a rotor blade tip, a wall, a blade inner side, a blade outer side and at least one first and second rotor blade part (210, 220) which are secured to one another by means of at least one securing unit in a dividing plane, wherein the securing unit has a cross pin in a first rotor blade part, a first clamping device in or on the cross pin, a steel cable which is guided through a hole in the second rotor blade part and a second clamping device with which a second end of the steel cable is clamped, wherein a first end of the steel cable is clamped in the first clamping device on the blade outer side, wherein the second clamping device is provided on the blade inner side.
A method of chemical mechanical polishing, comprising providing a slurry comprising a plurality of composite particles dispersed in a water-based carrier that comprise a plurality of hard particles on an outer surface of a soft-core particle, wherein said plurality of hard particles have a Mohs hardness at least 1 greater than a Mohs hardness of said soft core particle and/or a Vickers hardness at least 500 Kg/mm 2 greater than said soft-core particle, said hard particles are diamond, and said soft-core particle is alumina, boron carbide, boron nitride or silicon carbide; placing a substrate having a substrate surface with a hardness greater than a Mohs number of 6 or a Vickers hardness greater than 1,000 kg/mm 2 into a CMP apparatus having a rotating polishing pad, and performing CMP with said rotating polishing pad and said slurry to polish said substrate surface. providing a slurry comprising a plurality of composite particles dispersed in a water-based carrier that comprise a plurality of hard particles on an outer surface of a soft-core particle, wherein said plurality of hard particles have a Mohs hardness at least 1 greater than a Mohs hardness of said soft core particle and/or a Vickers hardness at least 500 Kg/mm 2 greater than said soft-core particle, said hard particles are diamond, and said soft-core particle is alumina, boron carbide, boron nitride or silicon carbide; placing a substrate having a substrate surface with a hardness greater than a Mohs number of 6 or a Vickers hardness greater than 1,000 kg/mm 2 into a CMP apparatus having a rotating polishing pad, and performing CMP with said rotating polishing pad and said slurry to polish said substrate surface.
A heat conductive sheet comprising: a resin; a particulate carbon material; and a fibrous carbon material in the form of fibrous carbon nanostructures including carbon nanotubes, characterized in that the fibrous carbon nanostructures including carbon nanotubes have an average diameter (Av) of 0.5 nm or more and 10 nm or less, and the fibrous carbon material is contained at an amount of 0.05% by mass to 5% by mass.
An apparatus comprising: an integral pressurized water reactor including: a nuclear core comprising a fissile material, a cylindrical pressure vessel having a vertically oriented cylinder axis and containing the nuclear core immersed in primary coolant water, and a hollow cylindrical central riser disposed concentrically with and inside the cylindrical pressure vessel, a downcomer annulus being defined between the hollow cylindrical central riser and the cylindrical pressure vessel, an annular divider plate that separates an upper plenum above the annular divider plate from a lower plenum below the annular divider plate; wherein the upper plenum is in fluid communication with an upper orifice of the hollow cylindrical riser and the lower plenum is in fluid communication with the downcomer annulus; wherein: the upper orifice of the hollow cylindrical central riser is a radially expanding upper orifice that merges into the annular divider plate. an integral pressurized water reactor including: a nuclear core comprising a fissile material, a cylindrical pressure vessel having a vertically oriented cylinder axis and containing the nuclear core immersed in primary coolant water, and a hollow cylindrical central riser disposed concentrically with and inside the cylindrical pressure vessel, a downcomer annulus being defined between the hollow cylindrical central riser and the cylindrical pressure vessel, an annular divider plate that separates an upper plenum above the annular divider plate from a lower plenum below the annular divider plate; a nuclear core comprising a fissile material, a cylindrical pressure vessel having a vertically oriented cylinder axis and containing the nuclear core immersed in primary coolant water, and a hollow cylindrical central riser disposed concentrically with and inside the cylindrical pressure vessel, a downcomer annulus being defined between the hollow cylindrical central riser and the cylindrical pressure vessel, an annular divider plate that separates an upper plenum above the annular divider plate from a lower plenum below the annular divider plate; wherein the upper plenum is in fluid communication with an upper orifice of the hollow cylindrical riser and the lower plenum is in fluid communication with the downcomer annulus; wherein: the upper orifice of the hollow cylindrical central riser is a radially expanding upper orifice that merges into the annular divider plate.
A nonwoven fabric having enhanced withdrawal force for a carpet backing fabric, which comprises: 50 to 90% by weight of polyester first filaments having a melting point of 250°C or higher and 10 to 50% by weight of low-melting point copolyester second filaments having a melting point of 200°C or lower, wherein loop withdrawal force of carpets is 2.0 to 3.0 kgf (Method KS K ISO 4919), wherein the thickness of the nonwoven fabric is in the range of 0.33 to 0.46 mm based on the weight per unit area of 70 to 110 g/m 2.
An electronic apparatus comprising: a main circuit board configured to have a first face on which a through hole penetrating through the main circuit board is formed and a second face on which the through hole is formed; a connector mounted on the first face; and a supporter including a supporting portion for supporting the connector on the first face of the main circuit board, and characterized by: a fixing portion having a screw hole overlapping the through hole on a side of the second face, and by the supporter fixed to the main circuit board by a screw inserted being from a side of the first face into the screw hole while the connector is supported by the supporter. a main circuit board configured to have a first face on which a through hole penetrating through the main circuit board is formed and a second face on which the through hole is formed; a connector mounted on the first face; and a supporter including a supporting portion for supporting the connector on the first face of the main circuit board, and characterized by: a fixing portion having a screw hole overlapping the through hole on a side of the second face, and by the supporter fixed to the main circuit board by a screw inserted being from a side of the first face into the screw hole while the connector is supported by the supporter. a supporting portion for supporting the connector on the first face of the main circuit board, and characterized by: a fixing portion having a screw hole overlapping the through hole on a side of the second face, a fixing portion having a screw hole overlapping the through hole on a side of the second face, and by the supporter fixed to the main circuit board by a screw inserted being from a side of the first face into the screw hole while the connector is supported by the supporter.
Method implemented in a transmission node (81, 91, 11), for performing link adaptation of a radio link (106, 108, C1), comprising: determining an estimation error of an estimated quality of the radio link (106, 108, C1), characterised by: determining a time limit, T, for which the estimated quality of the radio link is valid, and determining the estimation error and adapting Modulation and/or coding scheme, MCS, decision input value if the time limit has elapsed, adapting the MCS decision input value, which is based on the estimated quality of the radio link, by increasing the MCS decision input value if the determined estimation error exceeds a predetermined threshold, using a hybrid automatic repeat request, HARQ, transmission for throughput loss for an aggressive MCS caused by increasing the MCS decision input value if the determined estimation error exceeds a predetermined threshold, and selecting a MCS based on the MCS decision input value as adapted. determining a time limit, T, for which the estimated quality of the radio link is valid, and determining the estimation error and adapting Modulation and/or coding scheme, MCS, decision input value if the time limit has elapsed, adapting the MCS decision input value, which is based on the estimated quality of the radio link, by increasing the MCS decision input value if the determined estimation error exceeds a predetermined threshold, using a hybrid automatic repeat request, HARQ, transmission for throughput loss for an aggressive MCS caused by increasing the MCS decision input value if the determined estimation error exceeds a predetermined threshold, and selecting a MCS based on the MCS decision input value as adapted.
An exhaust silencer for an internal combustion engine of a motor vehicle, comprising a gastight housing (2; 14) having an exhaust gas inlet and an exhaust gas outlet, and at least one sound absorbing functional chamber (10; 20, 21, 22, 23) through which gas flows, and at least one wall in the interior of the housing (2; 14), the wall having micro-perforations and being exposed to the pulsating exhaust gas flow, characterized in that an intermediate bottom (17, 18) is provided which defines at least two functional chambers (20, 21, 22) and comprises a micro-perforated flat material and has a maximum pore size of 2.0 mm 2.
A bispecific antibody or functional fragment thereof comprising at least one variable binding domain consisting of a heavy chain variable domain and a light chain variable domain, wherein said binding domain comprises two paratopes for two unrelated epitopes, wherein (i) binding of each paratope to its epitope does not prevent the simultaneous binding of the other paratope to its respective epitope, and wherein (ii) the first paratope comprises residues from CDR1 and CDR3 of the VL domain and CDR2 of the VH domain, and the second paratope comprises residues from CDR1 and CDR3 of the VH domain and CDR2 of the VL domain.
A mounting wedge for the detachable, frictional connection of a fitting retainer to a fastening rail, the mounting wedge comprising a U-shaped wedge body, which has a first limb and a second limb, and a spreading device arranged between the limbs, the limbs (5, 6) being reversibly spreadable at an acute angle to each other by actuation of the spreading device in order to fix the fitting retainer frictionally to the fastening rail, and the spreading device comprising a spreading block which has an internal thread or bore and bears a threaded bolt and is guided between the limbs (5, 6) in such a manner that it passes between the first limb and the second limb and pushes them apart when the threaded bolt is actuated, characterised in that the threaded bolt is screwed into a threaded block, which has an internal thread and is held in a block bearing, wherein the block bearing is formed by cutouts in the first limb and/or second limb.
Vent and exhaust device for a container within which an overpressure of gas can be created during use, such as a container of moving parts, electrical or chemical parts like a battery for a vehicle; said device having a hollow body suited to be arranged on an opening of such container, the internal cavity of such body being closed, but communicating with the outside of the latter and a passage connected to the inside of the container from which the gas that forms in the latter can pass in order to vent to the outside of the aforesaid body, on this passage being placed a filter element permeable to such gas, this filter element being subject to pressure means placed in the internal cavity of such body, suited to pushing it in the position of interception or closure of the passage, such means allowing the opening of said passage for a venting of the gas when the pressure exceeds a predetermined value, but bringing such filter element back in the interception position when the pressure of the gas in the container returns below said predetermined value, characterized in that the filter element is integral with a support unit, on such unit acting directly the pressure means.
A connected cluster (104, 1210) of smart devices (110, 1220), each smart device (110, 1220) including a controller (128, 1240) and at least one functional unit (120, 1230), each functional unit (120, 1230) is either an information unit that obtains useful information or an active unit that controllably performs an action, the connected cluster (104, 1210) programmed to cooperate according to a cluster cooperation program, the cluster cooperation program for calculating target states of active units according to current states of functional units, the connected cluster (104, 1210) comprising: • at least one information device (106A...), each information device for reporting a current state of at least one information unit; and • at least two active devices (108A...), each active device for controlling at least one active unit included in the active device, characterized by: each active device further including: ▪ a communication unit (130, 1244) included in the active device for: (i) receiving the cluster cooperation program from a programming device (150, 1260), and (ii) receiving from smart devices (110, 1220) of the connected cluster (104, 1210) current states of functional units (120, 1230), ▪ a memory (138, 1250) included in the active device for storing the cluster cooperation program (1256/1510) received via the communication unit (130, 1244), and ▪ a processor (134, 1248) included in the active device (108A...) and programmed to autonomously: (i) calculate a target state of each active unit controlled by the active device (108A...) according to the cluster cooperation program (1256/1510) stored in the memory (138, 1250) and at least one current state of a functional unit received via the communication unit (130, 1244), and (ii) control each active unit controlled by the active device (108A...) for operating according to the calculated target state. • at least one information device (106A...), each information device for reporting a current state of at least one information unit; and • at least two active devices (108A...), each active device for controlling at least one active unit included in the active device, ▪ a communication unit (130, 1244) included in the active device for: (i) receiving the cluster cooperation program from a programming device (150, 1260), and (ii) receiving from smart devices (110, 1220) of the connected cluster (104, 1210) current states of functional units (120, 1230), ▪ a memory (138, 1250) included in the active device for storing the cluster cooperation program (1256/1510) received via the communication unit (130, 1244), and ▪ a processor (134, 1248) included in the active device (108A...) and programmed to autonomously: (i) calculate a target state of each active unit controlled by the active device (108A...) according to the cluster cooperation program (1256/1510) stored in the memory (138, 1250) and at least one current state of a functional unit received via the communication unit (130, 1244), and (ii) control each active unit controlled by the active device (108A...) for operating according to the calculated target state.