mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus comprising: a first right frame; a first left frame facing the first right frame; a second right frame positioned below the first right frame; a second left frame facing the second right frame and positioned below the first left frame; an image forming unit positioned between the first right frame and the first left frame; and a frame connecting unit configured to connect the first right frame, the first left frame, the second right frame and the second left frame, such that the first right frame and the second right frame are relatively slidable in a vertical direction and such that the first left frame and the second left frame are relatively slidable in the vertical direction characterized by a first connecting member, a first left oblong hole in the first left frame and a first right oblong hole in the first right frame, wherein the first left oblong hole and the first right oblong hole extend in a left-right direction perpendicular to the vertical direction, and the first connecting member is configured to pass through the first left oblong hole and to connect the first left frame and the frame connecting unit relatively slidably in the left-right direction, and the first connecting member is configured to pass through the first right oblong hole and to connect the first right frame and the frame connecting unit relatively slidably in the left-right direction, and a second connecting member and a second oblong hole (437R, 437L) in at least one of the second right frame, the second left frame and the frame connecting unit, wherein the second oblong hole (437R, 437L) extends in the vertical direction, and the second connecting member is configured to pass through the second oblong hole (437R, 437L) and to connect the second left or right frame (250L, 250R) and the frame connecting unit relatively slidably in the vertical direction, and wherein the first right frame and the first left frame are made of sheet metal and the second right frame and the second left frame are made of resin. a first right frame; a first left frame facing the first right frame; a second right frame positioned below the first right frame; a second left frame facing the second right frame and positioned below the first left frame; an image forming unit positioned between the first right frame and the first left frame; and a frame connecting unit configured to connect the first right frame, the first left frame, the second right frame and the second left frame, such that the first right frame and the second right frame are relatively slidable in a vertical direction and such that the first left frame and the second left frame are relatively slidable in the vertical direction
A method that facilitates reducing required feedback for data rate control in wireless communication, comprising: determining one or more groupings of a plurality of transmit antennas (316, 318, 320, 324); permuting data stream codewords according to a permutation of the antenna groupings such that each data stream is transmitted in part via all or a selected subset of the plurality of transmit antennas; and transmitting the permuted codewords through the one or more of groupings of transmit antennas over a forward link channel receiving a condensed channel quality indicator, CQI, as feedback related to transmitting the permuted codewords, wherein the condensed CQI comprises a base CQI for all transmitted data streams reflecting at signal quality metric of both a first decoded codeword and a second decoded codeword; and wherein determining one or more groupings comprises identifying active antennas among the plurality of transmit antennas (316, 318, 320, 324) and disregarding inactive antennas when formulating the one or more groupings. determining one or more groupings of a plurality of transmit antennas (316, 318, 320, 324); permuting data stream codewords according to a permutation of the antenna groupings such that each data stream is transmitted in part via all or a selected subset of the plurality of transmit antennas; and transmitting the permuted codewords through the one or more of groupings of transmit antennas over a forward link channel receiving a condensed channel quality indicator, CQI, as feedback related to transmitting the permuted codewords, wherein the condensed CQI comprises a base CQI for all transmitted data streams reflecting at signal quality metric of both a first decoded codeword and a second decoded codeword; and wherein determining one or more groupings comprises identifying active antennas among the plurality of transmit antennas (316, 318, 320, 324) and disregarding inactive antennas when formulating the one or more groupings.
A terminal box comprising: a terminal strip connected to an output line that takes out electric power generated at a solar cell module; and a main body housing the terminal strip, wherein the terminal strip includes a connecting portion electrically connected to the output line, and a play producing portion extending in a direction opposite the connecting portion from a support part provided in an end portion of the connecting portion, the play producing portion having an opening receiving the output line, the support part acting as a support point at which the play producing portion changes its angle relative to the connecting portion, wherein the main body includes a receiving hole formed at a position corresponding to the opening for receiving the output line, wherein the play producing portion inclines relative to the connecting portion by a first angle with the output line being inserted through the receiving hole and the opening to be connected to the connecting portion, and wherein the play producing portion inclines relative to the connecting portion by a second angle smaller than the first angle with the output line being connected to the connecting portion. a terminal strip connected to an output line that takes out electric power generated at a solar cell module; and a main body housing the terminal strip, wherein the terminal strip includes a connecting portion electrically connected to the output line, and a play producing portion extending in a direction opposite the connecting portion from a support part provided in an end portion of the connecting portion, the play producing portion having an opening receiving the output line, the support part acting as a support point at which the play producing portion changes its angle relative to the connecting portion, wherein the main body includes a receiving hole formed at a position corresponding to the opening for receiving the output line, wherein the play producing portion inclines relative to the connecting portion by a first angle with the output line being inserted through the receiving hole and the opening to be connected to the connecting portion, and wherein the play producing portion inclines relative to the connecting portion by a second angle smaller than the first angle with the output line being connected to the connecting portion.
Closure device comprising a supporting plate, an actuating lever pivotably connected to said supporting plate, a tensioning member connected at one of its ends to said lever and provided at its opposite end with hooking means, and an anchoring member provided with retaining means, wherein said hooking means of said tensioning member are intended to selectively engage said retaining means of said anchoring member, wherein said actuating lever consists of a lever arm and of at least one or more ancillary elements (21; 21'; 21") rigidly connected to said lever arm and said supporting plate and said tensioning member are connected to said actuating lever at said lever arm, characterized in that said lever arm has a "Y"-like shape and comprises a pair of wings, having respective free ends, and a stem, extending from the bifurcation point of said wings opposite to said free ends, said stem being made as a first elongated element or stem and said wings being made as two further elongated elements, said stem and said wings lying in a same plane, said wings being parallel to each other and parallel to said stem, and arranged on either sides of said stem, substantially at the same distance therefrom, said wings facing each other and being arranged offset relative to the stem by a distance greater than or equal to the length of the stem and the end of said stem closer to said wings being joined to the ends of said wings closer to said stem through respective joining sections, and in that said supporting plate is connected to said actuating lever at the free ends of said wings of said lever arm and said tensioning member is connected to said actuating lever at a middle portion of said wings of said lever arm.
A supplementary turning function-equipped hub unit comprising: a hub unit main body including a hub bearing configured to support a wheel; a unit support member configured to be provided to a chassis frame component of a suspension device, the unit support member supporting the hub unit main body so as to be rotatable about a turning axis extending in a vertical direction; and a turning actuator configured to rotationally drive the hub unit main body about the turning axis, characterised in that the unit support member includes an abutment part configured such that a part of the hub unit main body is brought into abutment with the abutment part in the vertical direction during non-normal time, the non-normal time in which the abutment is caused being defined as a time when an impact load equal to or greater than a predetermined value acts on the hub unit main body in the vertical direction due to an external force from the wheel, and the abutment part is separated from the hub unit main body in the vertical direction during normal time. a hub unit main body including a hub bearing configured to support a wheel; a unit support member configured to be provided to a chassis frame component of a suspension device, the unit support member supporting the hub unit main body so as to be rotatable about a turning axis extending in a vertical direction; and a turning actuator configured to rotationally drive the hub unit main body about the turning axis, characterised in that the unit support member includes an abutment part configured such that a part of the hub unit main body is brought into abutment with the abutment part in the vertical direction during non-normal time, the non-normal time in which the abutment is caused being defined as a time when an impact load equal to or greater than a predetermined value acts on the hub unit main body in the vertical direction due to an external force from the wheel, and the abutment part is separated from the hub unit main body in the vertical direction during normal time.
A method performed by a control unit for controlling a vehicle based on a quantified vehicle path following performance, the method comprising; obtaining samples of path following performance p i i = 1 n − 1, wherein path following performance p i is measured as a track error indicating a discrepancy between a target vehicle state and an actual vehicle state in following a vehicle path, selecting a subset of the path following performance samples such that the selected samples follow a pre-determined statistical extreme value distribution, wherein the selecting comprises determining a threshold ζ such that the samples of vehicle path following performance in excess of the threshold ζ, { p i: p i ≰ ζ}, follow the pre-determined statistical extreme value distribution, parameterizing the pre-determined statistical extreme value distribution based on the selected samples of path following performance, quantifying vehicle path following performance based on the parameterized statistical extreme value distribution, and controlling the vehicle by the control unit based on the quantified vehicle path following performance. obtaining samples of path following performance p i i = 1 n − 1, wherein path following performance p i is measured as a track error indicating a discrepancy between a target vehicle state and an actual vehicle state in following a vehicle path, selecting a subset of the path following performance samples such that the selected samples follow a pre-determined statistical extreme value distribution, wherein the selecting comprises determining a threshold ζ such that the samples of vehicle path following performance in excess of the threshold ζ, { p i: p i ≰ ζ}, follow the pre-determined statistical extreme value distribution, parameterizing the pre-determined statistical extreme value distribution based on the selected samples of path following performance, quantifying vehicle path following performance based on the parameterized statistical extreme value distribution, and controlling the vehicle by the control unit based on the quantified vehicle path following performance.
An articulation device for an articulated vehicle comprising: - a first shackle adapted to be attached to a first car of the articulated vehicle, - a second shackle adapted to be attached to a second car of the articulated vehicle, and - an articulation joint comprising a first articulation member comprising a single first section, the articulation joint comprising a second articulation member comprising a single second section, the first section defining a first longitudinal axis (X1-X1), the second section defining a second longitudinal axis (X2-X2), the first section and the second section being rotatable relative to each other about a first transverse axis (Z-Z) extending transversely to the first longitudinal axis (X1-X1) and the second longitudinal axis (X2-X2) the first shackle being connected to the first articulation member and the second shackle being connected to the second articulation member; characterized in that the second articulation member comprises a single connecting member through which the second section is connected to the second shackle, the connecting member being adapted to adjust the position of the second section relative to the second shackle along the second longitudinal axis (X2-X2) and along a second transverse axis (Y2-Y2) extending perpendicularly to the second longitudinal axis (X2-X2) and the first transverse axis (Z-Z). - a first shackle adapted to be attached to a first car of the articulated vehicle, - a second shackle adapted to be attached to a second car of the articulated vehicle, and - an articulation joint comprising a first articulation member comprising a single first section, the articulation joint comprising a second articulation member comprising a single second section, the first section defining a first longitudinal axis (X1-X1), the second section defining a second longitudinal axis (X2-X2), the first section and the second section being rotatable relative to each other about a first transverse axis (Z-Z) extending transversely to the first longitudinal axis (X1-X1) and the second longitudinal axis (X2-X2) the first shackle being connected to the first articulation member and the second shackle being connected to the second articulation member; characterized in that the second articulation member comprises a single connecting member through which the second section is connected to the second shackle, the connecting member being adapted to adjust the position of the second section relative to the second shackle along the second longitudinal axis (X2-X2) and along a second transverse axis (Y2-Y2) extending perpendicularly to the second longitudinal axis (X2-X2) and the first transverse axis (Z-Z).
An electrosurgical device, comprising: a handle member having a proximal end and a distal end and including a waveguide the waveguide being defined by an electrically conductive tubular wall, a polymeric or ceramic grippable housing (151, 153) on the tubular wall, the cavity of the waveguide being filled with dielectric (290, 291, 292, 293), the dielectric terminating in a dielectric structure (112, 120, 420) at the distal end of the handle member for contacting and irradiating tissue; a coaxial cable coupled to the waveguide to supply energy thereto; and a surface-contact detection device including a lens member in the form of a ring defining a central opening, wherein the dielectric extends through the central opening, a plurality of optical transmitters to generate optical signals, and a plurality of optical receivers to receive optical signals reflected by the lens member, wherein the lens member is adapted to allow the optical transmitters and the optical receivers to communicate when the lens member is disposed in contact with tissue. a handle member having a proximal end and a distal end and including a waveguide the waveguide being defined by an electrically conductive tubular wall, a polymeric or ceramic grippable housing (151, 153) on the tubular wall, the cavity of the waveguide being filled with dielectric (290, 291, 292, 293), the dielectric terminating in a dielectric structure (112, 120, 420) at the distal end of the handle member for contacting and irradiating tissue; a coaxial cable coupled to the waveguide to supply energy thereto; and a surface-contact detection device including a lens member in the form of a ring defining a central opening, wherein the dielectric extends through the central opening, a plurality of optical transmitters to generate optical signals, and a plurality of optical receivers to receive optical signals reflected by the lens member, wherein the lens member is adapted to allow the optical transmitters and the optical receivers to communicate when the lens member is disposed in contact with tissue.
Transponder for a wireless communication and contactless identification system, of the RFID type, intended to be affixed to a buried polymer pipe, the transponder comprising: - a first RFID chip associated to a first antenna, said first antenna having a surface being configured for covering a first area of the external surface of said polymer pipe; - a second RFID chip associated to a second antenna, said second antenna having a surface being configured for covering a second area of the external surface of said polymer pipe, said second area being distinct from said first area; characterized in that Said first RFID chip comprises a field for storing an identifier, UID, of said second RFID chip; said second RFID chip comprises a field for storing an identifier, UID, of said first RFID chip; and the identifier of said first RFID chip and the identifier element of said second RFID chip allows a surface detector to determine that the two RFID chips belong to a same buried polymer pipe. - a first RFID chip associated to a first antenna, said first antenna having a surface being configured for covering a first area of the external surface of said polymer pipe; - a second RFID chip associated to a second antenna, said second antenna having a surface being configured for covering a second area of the external surface of said polymer pipe, said second area being distinct from said first area; Said first RFID chip comprises a field for storing an identifier, UID, of said second RFID chip; said second RFID chip comprises a field for storing an identifier, UID, of said first RFID chip; and the identifier of said first RFID chip and the identifier element of said second RFID chip allows a surface detector to determine that the two RFID chips belong to a same buried polymer pipe.
A polymer, which is a fluorine-containing polymer comprising: (a) a fluorine-containing monomer, (b) an acrylamide monomer of the formula: wherein X is H or methyl, R 1 is H, C 1-10 -alkyl or C 1-10 -alkoxyalkyl, and R 2 is C 1-10 -alkyl or C 1-10 -alkoxyalkyl, and (c) a fluorine-free crosslinkable monomer having at least two reactive groups and/or carbon-carbon double bonds, wherein the reactive group is at least one selected from hydroxyl, epoxy, chloromethyl, blocked isocyanate, acetoacetoxy and carboxyl. (a) a fluorine-containing monomer, (b) an acrylamide monomer of the formula: wherein X is H or methyl, R 1 is H, C 1-10 -alkyl or C 1-10 -alkoxyalkyl, and R 2 is C 1-10 -alkyl or C 1-10 -alkoxyalkyl, and X is H or methyl, R 1 is H, C 1-10 -alkyl or C 1-10 -alkoxyalkyl, and R 2 is C 1-10 -alkyl or C 1-10 -alkoxyalkyl, and (c) a fluorine-free crosslinkable monomer having at least two reactive groups and/or carbon-carbon double bonds, wherein the reactive group is at least one selected from hydroxyl, epoxy, chloromethyl, blocked isocyanate, acetoacetoxy and carboxyl.
A method for producing a manganese steel product, the method comprising the following steps: - providing an alloy with ∘ a carbon content in the following range 0.02 ≤ C ≤ 0.35% by weight, and ∘ a manganese content (Mn) in the following range of 3.5% by weight ≤ Mn ≤ 6 % by weight, wherein the method is characterized by the following steps: - carrying out an en-bloc annealing process with the following substeps, wherein the en-bloc annealing process is a continuously conducted temperature treatment without interruption, after which the steel product must be reheated: ∘ heating the steel product to a first holding temperature which is in the range of 820°C ± 20°C, ∘ first holding of the steel product during a first holding period (δ1) at the first holding temperature, ∘ faster first cooling of the steel product to a second holding temperature which is in the range between 350°C and 450°C, ∘ second holding of the steel product during a second holding period (δ2) in the range of the second holding temperature, ∘ performing a slower second cooling, wherein the faster first cooling is performed at a cooling rate higher than the cooling rate of the slower second cooling. - providing an alloy with ∘ a carbon content in the following range 0.02 ≤ C ≤ 0.35% by weight, and ∘ a manganese content (Mn) in the following range of 3.5% by weight ≤ Mn ≤ 6 % by weight, ∘ a carbon content in the following range 0.02 ≤ C ≤ 0.35% by weight, and ∘ a manganese content (Mn) in the following range of 3.5% by weight ≤ Mn ≤ 6 % by weight, - carrying out an en-bloc annealing process with the following substeps, wherein the en-bloc annealing process is a continuously conducted temperature treatment without interruption, after which the steel product must be reheated: ∘ heating the steel product to a first holding temperature which is in the range of 820°C ± 20°C, ∘ first holding of the steel product during a first holding period (δ1) at the first holding temperature, ∘ faster first cooling of the steel product to a second holding temperature which is in the range between 350°C and 450°C, ∘ second holding of the steel product during a second holding period (δ2) in the range of the second holding temperature, ∘ performing a slower second cooling, wherein the faster first cooling is performed at a cooling rate higher than the cooling rate of the slower second cooling. ∘ heating the steel product to a first holding temperature which is in the range of 820°C ± 20°C, ∘ first holding of the steel product during a first holding period (δ1) at the first holding temperature, ∘ faster first cooling of the steel product to a second holding temperature which is in the range between 350°C and 450°C, ∘ second holding of the steel product during a second holding period (δ2) in the range of the second holding temperature, ∘ performing a slower second cooling, wherein the faster first cooling is performed at a cooling rate higher than the cooling rate of the slower second cooling.