mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: an ice maker comprising: an ice making tray rotatably provided therein; a driving unit connected with the ice making tray, to rotate the ice making tray selectively; and a cooling member received in the ice making tray; wherein the ice making tray is twistably rotated, and the cooling member is twistable corresponding to the twistable rotation of the ice making tray, characterized in that the cooling member is connected to the ice making tray and contactable with water supplied to the ice making tray. an ice maker comprising: an ice making tray rotatably provided therein; a driving unit connected with the ice making tray, to rotate the ice making tray selectively; and a cooling member received in the ice making tray; wherein the ice making tray is twistably rotated, and the cooling member is twistable corresponding to the twistable rotation of the ice making tray, characterized in that the cooling member is connected to the ice making tray and contactable with water supplied to the ice making tray.
A method of operating a wireless terminal in a sectorized cell, each sector being adjacent to at least one other sector in the cell and wherein adjacent sectors form sector pairs, each cell including a base station coupled to a multi-face antenna (118,120,122), each face of said base station antenna corresponding to a different sector of said cell, said sectors being timing synchronized, the method comprising, at the wireless terminal: transmitting path loss information corresponding to a first antenna face in an antenna face pair to the base station transmitting path loss information corresponding to a second antenna face in said antenna face pair to said base station, wherein said first and second antenna faces are adjacent antenna faces, wherein the path loss information corresponding to the first antenna face in the antenna face pair and the path loss information corresponding to the second antenna face are transmitted in a jointly coded single report; receiving in response to the transmitted path loss information, a base station determination indicating whether said wireless terminal is to be in a sector state during which the wireless terminal communicates with the base station via a single antenna face and communication is in a non MIMO mode of operation or sector pair state wherein the wireless terminal communicates with the base station in a MIMO mode of operation via a pair of adjacent antenna faces using at least two wireless terminal antennas; maintaining information based on the received base station determination indicating whether said wireless terminal is in a sector or sector pair state, and communicating (518,520) with said base station in one of the MIMO mode of operation and the non-MIMO mode of operation, the mode of operation used for communicating being a function of whether said maintained information indicates said wireless terminal is in a sector or sector pair state. transmitting path loss information corresponding to a first antenna face in an antenna face pair to the base station transmitting path loss information corresponding to a second antenna face in said antenna face pair to said base station, wherein said first and second antenna faces are adjacent antenna faces, wherein the path loss information corresponding to the first antenna face in the antenna face pair and the path loss information corresponding to the second antenna face are transmitted in a jointly coded single report; receiving in response to the transmitted path loss information, a base station determination indicating whether said wireless terminal is to be in a sector state during which the wireless terminal communicates with the base station via a single antenna face and communication is in a non MIMO mode of operation or sector pair state wherein the wireless terminal communicates with the base station in a MIMO mode of operation via a pair of adjacent antenna faces using at least two wireless terminal antennas; maintaining information based on the received base station determination indicating whether said wireless terminal is in a sector or sector pair state, and
An aircraft raceway comprising: a plurality of wall portions adjoining a base portion together defining a plurality of longitudinal open channels (205a, 205b, 205c, 205d), the open side of each channel being arranged to provide access for installation of one or more cables or pipes or wires (215a, 215b, 215c, 215d) within the respective channel; characterized in that the raceway comprises an intumescent layer in the form of intumescent paint disposed on the inner surface of at least one of the wall portions adjacent the open side of the respective channel (205a, 205b, 205c, 205d), the intumescent layer having a non-activated state in which the open side of the channel is maintained substantially open and a thermally activated state in which the or each intumescent layer expands so as to close the open side of the respective channel (205a, 205b, 205c, 205d); and a nylon layer covering the walls of the respective channel not otherwise covered by the intumescent layer. a plurality of wall portions adjoining a base portion together defining a plurality of longitudinal open channels (205a, 205b, 205c, 205d), the open side of each channel being arranged to provide access for installation of one or more cables or pipes or wires (215a, 215b, 215c, 215d) within the respective channel; characterized in that the raceway comprises an intumescent layer in the form of intumescent paint disposed on the inner surface of at least one of the wall portions adjacent the open side of the respective channel (205a, 205b, 205c, 205d), the intumescent layer having a non-activated state in which the open side of the channel is maintained substantially open and a thermally activated state in which the or each intumescent layer expands so as to close the open side of the respective channel (205a, 205b, 205c, 205d); and a nylon layer covering the walls of the respective channel not otherwise covered by the intumescent layer.
A speech encoding method for encoding a speech according to code-excited linear prediction CELP, comprising: analyzing the speech to obtain a linear prediction parameter; obtaining a linear prediction parameter code by encoding the linear prediction parameter; obtaining an adaptive code corresponding to a first time series vector from an adaptive codebook; evaluating a noise level of the speech using a code or coding result of pitch information; obtaining a first weight and a second weight based on the evaluated noise level; obtaining an excitation code which corresponds to a second time series vector, the second time series vector being a weighted sum of a time series vector from a first excitation codebook storing noise time series vectors, weighted using the first weight and a time series vector from a second excitation codebook storing non-noise time series vectors, weighted using the second weight; obtaining a gain code corresponding to a first gain of the first time series vector and a second gain of the second time series vector, said obtaining comprises calculating a distance between a synthesised speech and the speech, wherein the synthesised speech is obtained by using the first and second time series vectors weighted with their respective gains and added, and wherein the adaptive code, excitation code and gain code are obtained through a search for values which minimize the distance; and outputting a speech code including the adaptive code, the linear prediction parameter code, the gain code, and the excitation code. analyzing the speech to obtain a linear prediction parameter; obtaining a linear prediction parameter code by encoding the linear prediction parameter; obtaining an adaptive code corresponding to a first time series vector from an adaptive codebook; evaluating a noise level of the speech using a code or coding result of pitch information; obtaining a first weight and a second weight based on the evaluated noise level; obtaining an excitation code which corresponds to a second time series vector, the second time series vector being a weighted sum of a time series vector from a first excitation codebook storing noise time series vectors, weighted using the first weight and a time series vector from a second excitation codebook storing non-noise time series vectors, weighted using the second weight; obtaining a gain code corresponding to a first gain of the first time series vector and a second gain of the second time series vector, said obtaining comprises calculating a distance between a synthesised speech and the speech, wherein the synthesised speech is obtained by using the first and second time series vectors weighted with their respective gains and added, and wherein the adaptive code, excitation code and gain code are obtained through a search for values which minimize the distance; and outputting a speech code including the adaptive code, the linear prediction parameter code, the gain code, and the excitation code.
A design method for designing an implant specific drill bit for producing cavities for receiving orthopedic implants for replacement of damaged bone and/or cartilage comprising the steps; a. determining or selecting a size and shape of an orthopedic implant comprising a circular shaped implant body having a bone contacting surface which comprises a protruding anchoring ring portion and a centrally placed circular shaped extending post protruding from the bone contacting surface in a longitudinal y-axis direction of the implant; and b. selecting design parameters for the implant specific drill bit by; - selecting the width of the broadest part of the bone remover in a side view to correspond to, or to be slightly smaller than, the diameter of the implant body of the specific implant that is to be implanted - selecting the diameter of the central drill part to be the same as, or slightly smaller than, the diameter of the extending post of the specific implant that is to be implanted - selecting the curvature of the cutting edge surrounding the central drill part of the implant specific drill bit to correspond to the curvature of the bone contacting surface of the implant, with peripheral flanges protruding from the surface of the cutting edge corresponding to the protruding anchoring ring portion of the implant. a. determining or selecting a size and shape of an orthopedic implant comprising a circular shaped implant body having a bone contacting surface which comprises a protruding anchoring ring portion and a centrally placed circular shaped extending post protruding from the bone contacting surface in a longitudinal y-axis direction of the implant; and b. selecting design parameters for the implant specific drill bit by; - selecting the width of the broadest part of the bone remover in a side view to correspond to, or to be slightly smaller than, the diameter of the implant body of the specific implant that is to be implanted - selecting the diameter of the central drill part to be the same as, or slightly smaller than, the diameter of the extending post of the specific implant that is to be implanted - selecting the curvature of the cutting edge surrounding the central drill part of the implant specific drill bit to correspond to the curvature of the bone contacting surface of the implant, with peripheral flanges protruding from the surface of the cutting edge corresponding to the protruding anchoring ring portion of the implant. - selecting the width of the broadest part of the bone remover in a side view to correspond to, or to be slightly smaller than, the diameter of the implant body of the specific implant that is to be implanted - selecting the diameter of the central drill part to be the same as, or slightly smaller than, the diameter of the extending post of the specific implant that is to be implanted - selecting the curvature of the cutting edge surrounding the central drill part of the implant specific drill bit to correspond to the curvature of the bone contacting surface of the implant, with peripheral flanges protruding from the surface of the cutting edge corresponding to the protruding anchoring ring portion of the implant.
A negative active material for a rechargeable lithium secondary battery comprising: a core comprising a lithium titanium oxide represented by the formula Li x Ti y O 4 wherein 0.8≤x≤1.4, and 1.6≤y≤2.2, the core containing at least one surface functional group selected from O - and CO 2 -; and a coating layer positioned on a surface of the core, the coating layer comprising an acid anhydride physisorbed onto the core. a core comprising a lithium titanium oxide represented by the formula Li x Ti y O 4 wherein 0.8≤x≤1.4, and 1.6≤y≤2.2, the core containing at least one surface functional group selected from O - and CO 2 -; and a coating layer positioned on a surface of the core, the coating layer comprising an acid anhydride physisorbed onto the core.
A method of controlling Ramularia species on cereals, barley and cotton, the method comprising applying to the locus of a plant a fungicidal composition comprising, as active components, Fluxapyroxad and Folpet in a weight ratio from 1:6±10% to 1:10±10%, and wherein Folpet is applied at application rates of from 500±10% to 1000±10% g a.i./ha and Fluxapyroxad is applied at application rates of from 20±10% to 200±10% g a.i./ha.
A probe for testing an electrical property of a test sample, said probe comprising: - a probe body having a first side defining a substantially planar body surface, with a difference in height of less than 20 % between a highest and a lowest point, - a first cantilever extending from said probe body, and having a proximal end at said probe body and a distal end, said distal end being opposite to said proximal end, said first cantilever defining a first loop with respect to said probe body, the loop begins and ends on the probe body - at a first point and at a second point respectively, said first loop extending in a first plane substantially parallel to said planar body surface, with direction deviations of less than 10°, - a first contact probe being supported by said first cantilever, - a second contact probe being electrically insulated from said first contact probe, said second contact probe being supported by a second cantilever extending from said probe body towards said distal end, said second cantilever defining a second loop with respect to said probe body, said second loop extending in a second plane substantially parallel to said first plane,, with direction deviations of less than 10°, characterized in that said second loop being within a projection of said first loop onto said second plane. - a probe body having a first side defining a substantially planar body surface, with a difference in height of less than 20 % between a highest and a lowest point, - a first cantilever extending from said probe body, and having a proximal end at said probe body and a distal end, said distal end being opposite to said proximal end, said first cantilever defining a first loop with respect to said probe body, the loop begins and ends on the probe body - at a first point and at a second point respectively, said first loop extending in a first plane substantially parallel to said planar body surface, with direction deviations of less than 10°, - a first contact probe being supported by said first cantilever, - a second contact probe being electrically insulated from said first contact probe, - a first contact probe being supported by said first cantilever, - a second contact probe being electrically insulated from said first contact probe, said second contact probe being supported by a second cantilever extending from said probe body towards said distal end, said second cantilever defining a second loop with respect to said probe body, said second loop extending in a second plane substantially parallel to said first plane,, with direction deviations of less than 10°, characterized in that said second loop being within a projection of said first loop onto said second plane.
An inspecting device comprising: - a first index table; - a second index table; - an arm configured to conduct a device transferring operation of transferring a device between the first index table and the second index table; - a first testing device configured to test, in a first environment, the device placed on the first index table; and - a second testing device configured to test, in a second environment which is different from the first environment, the device placed on the second index table. - a first index table; - a second index table; - an arm configured to conduct a device transferring operation of transferring a device between the first index table and the second index table; - a first testing device configured to test, in a first environment, the device placed on the first index table; and - a second testing device configured to test, in a second environment which is different from the first environment, the device placed on the second index table.
An exhaust heat recovery device comprising: an exhaust pipe that is configured to guide exhaust gas from an upstream side to a downstream side; a branch port for the exhaust gas, provided inside of the exhaust pipe; a heat exchange part that is configured to perform heat exchange between the exhaust gas branched from the branch port and a heat exchange medium; an exhaust port that is configured to discharge the exhaust gas, which has passed through the heat exchange part, to outside of the exhaust pipe; an opening and closing unit that is configured to open and close an outlet of the exhaust pipe; and a shell member that is configured to guide the exhaust gas discharged from the outlet and the exhaust port, to the downstream side, wherein the shell member comprises an intersecting plane intersecting a virtual ray that extends from an end part of the outlet on a side of the exhaust port, the end part serving as a starting point, and the virtual ray being inclined outwardly at an angle of 7° with respect to an axial direction of the exhaust pipe, and the intersecting plane forms an angle of 90° to 97° with respect to the virtual ray, wherein the exhaust port is positioned between the outlet and the intersecting plane in the axial direction, and wherein the exhaust port is located beneath a center of the outlet. an exhaust pipe that is configured to guide exhaust gas from an upstream side to a downstream side; a branch port for the exhaust gas, provided inside of the exhaust pipe; a heat exchange part that is configured to perform heat exchange between the exhaust gas branched from the branch port and a heat exchange medium; an exhaust port that is configured to discharge the exhaust gas, which has passed through the heat exchange part, to outside of the exhaust pipe; an opening and closing unit that is configured to open and close an outlet of the exhaust pipe; and a shell member that is configured to guide the exhaust gas discharged from the outlet and the exhaust port, to the downstream side, wherein the shell member comprises an intersecting plane intersecting a virtual ray that extends from an end part of the outlet on a side of the exhaust port, the end part serving as a starting point, and the virtual ray being inclined outwardly at an angle of 7° with respect to an axial direction of the exhaust pipe, and the intersecting plane forms an angle of 90° to 97° with respect to the virtual ray, wherein the exhaust port is positioned between the outlet and the intersecting plane in the axial direction, and wherein the exhaust port is located beneath a center of the outlet.
An electronic musical instrument, comprising: an input unit, which inputs a sound instruction of a plurality of tones; a detection unit (5, 22), which has a detection surface comprising a position sensor configured to detect detection positions on the detection surface; a musical sound control unit, which applies a musical sound effect to each of the plurality of tones based on the sound instruction input by the input unit and outputs the tones; a musical sound effect change unit, which changes, for each tone, a degree of the musical sound effect applied to each tone by the musical sound control unit corresponding to the detection positions detected by the detection unit (5, 22); and an operator (6, 23) which is arranged near the detection unit (5, 22) and inputs an operation of a performer, wherein the musical sound effect change unit changes the degrees of the musical sound effects applied to the plurality of tones output by the musical sound control unit corresponding to an operation amount of the operator (6, 23) and the detection result of the detection unit (5, 22), characterized in that the operator (6, 23) is arranged along a longitudinal side of the detection unit (5, 22), and the operation amount of the operator (6, 23) is output by operating to recline the operator (6, 23) toward an opposite side of the detection unit (5, 22). an input unit, which inputs a sound instruction of a plurality of tones; a detection unit (5, 22), which has a detection surface comprising a position sensor configured to detect detection positions on the detection surface; a musical sound control unit, which applies a musical sound effect to each of the plurality of tones based on the sound instruction input by the input unit and outputs the tones; a musical sound effect change unit, which changes, for each tone, a degree of the musical sound effect applied to each tone by the musical sound control unit corresponding to the detection positions detected by the detection unit (5, 22); and an operator (6, 23) which is arranged near the detection unit (5, 22) and inputs an operation of a performer, wherein the musical sound effect change unit changes the degrees of the musical sound effects applied to the plurality of tones output by the musical sound control unit corresponding to an operation amount of the operator (6, 23) and the detection result of the detection unit (5, 22), characterized in that the operator (6, 23) is arranged along a longitudinal side of the detection unit (5, 22), and the operation amount of the operator (6, 23) is output by operating to recline the operator (6, 23) toward an opposite side of the detection unit (5, 22).