mhurhangee/ep-ind-claims huggingface dataset:
A control information transmission method, comprising: a) sending (201, 301, 401) control information, wherein the control information is associated with one of at least two transmission schemes, and the control information comprises information used to indicate a transmission scheme type; b1) wherein the control information format used by the control information comprises one or more of a third format, a fourth format, and a fifth format, the fifth format is used to indicate control information of common system information, and the third format and the fourth format are used to indicate control information of a user dedicated channel; b2) one part of control information of a first transmission scheme in the at least two transmission schemes uses the third format, and the other part of control information uses the fourth format; c) wherein the third format is used by control information shared by all the transmission schemes, and the fourth format is used by control information specific to the first transmission scheme; and d1) wherein the third format comprises a first information field, and the first information field is used to carry indication information of the fourth format; and d2) in the third format used by the control information of the first transmission scheme, the first information field carries first indication information, and the first indication information is used to indicate whether there is the fourth format. a) sending (201, 301, 401) control information, wherein the control information is associated with one of at least two transmission schemes, and the control information comprises information used to indicate a transmission scheme type; b1) wherein the control information format used by the control information comprises one or more of a third format, a fourth format, and a fifth format, the fifth format is used to indicate control information of common system information, and the third format and the fourth format are used to indicate control information of a user dedicated channel; b2) one part of control information of a first transmission scheme in the at least two transmission schemes uses the third format, and the other part of control information uses the fourth format; c) wherein the third format is used by control information shared by all the transmission schemes, and the fourth format is used by control information specific to the first transmission scheme; and d1) wherein the third format comprises a first information field, and the first information field is used to carry indication information of the fourth format; and d2) in the third format used by the control information of the first transmission scheme, the first information field carries first indication information, and the first indication information is used to indicate whether there is the fourth format.
A method for improving a performance of a virtual machine, wherein a virtual disk file is associated to the virtual machine and the virtual machine performs on a host with a disk and a storage device associated with the host, the method comprising: the storage device having the virtual disk file stored on the disk, and the host having the virtual disk file stored in the storage device; characterized in: determining (S101, S203) whether or not a failure of the disk of the host having the virtual disk file stored therein occurs if the virtual machine sends a read request or a write request to the virtual disk file; if the failure occurs, sending (S102, S205) the read request or the write request to the storage device so that the storage device is able to feed back corresponding data; detecting (S103, S205) whether or not the disk of the host is recovered if the data fed back from the write request is received; and writing (S104, S206) the data fed back from the write request into the disk of the host if the disk of the host is recovered. the storage device having the virtual disk file stored on the disk, and the host having the virtual disk file stored in the storage device; characterized in: determining (S101, S203) whether or not a failure of the disk of the host having the virtual disk file stored therein occurs if the virtual machine sends a read request or a write request to the virtual disk file; if the failure occurs, sending (S102, S205) the read request or the write request to the storage device so that the storage device is able to feed back corresponding data; detecting (S103, S205) whether or not the disk of the host is recovered if the data fed back from the write request is received; and writing (S104, S206) the data fed back from the write request into the disk of the host if the disk of the host is recovered. determining (S101, S203) whether or not a failure of the disk of the host having the virtual disk file stored therein occurs if the virtual machine sends a read request or a write request to the virtual disk file; if the failure occurs, sending (S102, S205) the read request or the write request to the storage device so that the storage device is able to feed back corresponding data; detecting (S103, S205) whether or not the disk of the host is recovered if the data fed back from the write request is received; and writing (S104, S206) the data fed back from the write request into the disk of the host if the disk of the host is recovered.
A steel plate coloring device, comprising: a body unit provided on a transfer path of a steel plate; and an irradiation unit provided in the body unit, which irradiates, onto a surface of the steel plate, a line-shaped laser in a width direction of the steel plate so as to provide color to the surface of the steel plate (s), wherein the irradiation unit includes: an irradiation support unit coupled to the body unit; a point irradiation member provided as a plurality of point irradiation units disposed in parallel in the irradiation support unit, and emitting the laser; and a linear lens portion provided to be connected to ends of the plurality of point irradiation units from which the laser is emitted; characterised in that the irradiation support unit is coupled to the body unit; and in that the irradiation support unit includes a line member provided to allow the plurality of point irradiation units to be arranged linearly, and of which a position is adjustable to correspond to a width of the steel plate. a body unit provided on a transfer path of a steel plate; and an irradiation unit provided in the body unit, which irradiates, onto a surface of the steel plate, a line-shaped laser in a width direction of the steel plate so as to provide color to the surface of the steel plate (s), wherein the irradiation unit includes: an irradiation support unit coupled to the body unit; a point irradiation member provided as a plurality of point irradiation units disposed in parallel in the irradiation support unit, and emitting the laser; and a linear lens portion provided to be connected to ends of the plurality of point irradiation units from which the laser is emitted; characterised in that the irradiation support unit is coupled to the body unit; and in that the irradiation support unit includes a line member provided to allow the plurality of point irradiation units to be arranged linearly, and of which a position is adjustable to correspond to a width of the steel plate. an irradiation support unit coupled to the body unit; a point irradiation member provided as a plurality of point irradiation units disposed in parallel in the irradiation support unit, and emitting the laser; and a linear lens portion provided to be connected to ends of the plurality of point irradiation units from which the laser is emitted; characterised in that the irradiation support unit is coupled to the body unit; and in that the irradiation support unit includes a line member provided to allow the plurality of point irradiation units to be arranged linearly, and of which a position is adjustable to correspond to a width of the steel plate.
A method for manufacturing a board formed as a three dimensional body, the method comprising; providing a core, formed as a three dimensional body presenting a first face and a second face and a wall structure defining a plurality of channels, each channel having a longitudinal axis intersecting the first face at an angle(α) which is less than 90 degrees, applying a water based adhesive to the first face of the core, and laminating a first facing sheet to the first face of the board.
A method for forming a composite component, the method comprising: providing a mould comprising a first part of the mould (8, 10, 12) and a second part of the mould, the first part and second part when assembled define an exterior surface of the composite component; loading the first part of the mould (8, 10, 12) with reinforcing material; dispensing matrix precursor into the first part of the mould (8, 10, 12) to impregnate reinforcing material located in the first part of the mould with matrix precursor whilst the second part of the mould is not in contact with the first part of the mould (8, 10, 12); closing the second part of the mould and the first part of the mould (8, 10, 12) around the reinforcing material and matrix precursor to assemble the first part (8, 10, 12) and second part to define an exterior surface of the composite component; and injecting matrix precursor into the closed mould to impregnate reinforcing material located between the first (8, 10, 12) and second parts of the mould with matrix precursor. providing a mould comprising a first part of the mould (8, 10, 12) and a second part of the mould, the first part and second part when assembled define an exterior surface of the composite component; loading the first part of the mould (8, 10, 12) with reinforcing material; dispensing matrix precursor into the first part of the mould (8, 10, 12) to impregnate reinforcing material located in the first part of the mould with matrix precursor whilst the second part of the mould is not in contact with the first part of the mould (8, 10, 12); closing the second part of the mould and the first part of the mould (8, 10, 12) around the reinforcing material and matrix precursor to assemble the first part (8, 10, 12) and second part to define an exterior surface of the composite component; and injecting matrix precursor into the closed mould to impregnate reinforcing material located between the first (8, 10, 12) and second parts of the mould with matrix precursor.
A hydraulic system for a construction machine including a slewing body, comprising: a hydraulic pump that discharges hydraulic fluid; a slewing motor that is a variable displacement motor operated by hydraulic fluid supplied from the hydraulic pump to slew the slewing body; a slewing speed sensor that detects a slewing speed (Vs) of the slewing body; and a controller that controls a capacity of the slewing motor, characterized in that in the controller, speed ranges with respect to the slewing speed (Vs) are set, the speed ranges including a low speed range in which any slewing speed (Vs) is less than or equal to a certain value and a high speed range in which any slewing speed (Vs) is higher than that in the low speed range; and the controller is configured to perform a large-capacity-in-low-speed-range control of controlling the slewing motor capacity so as to make the slewing motor capacity when the slewing speed (Vs) detected by the slewing speed sensor is in the low-speed range be greater than the slewing motor capacity when the slewing speed (Vs) is in the high speed range. a hydraulic pump that discharges hydraulic fluid; a slewing motor that is a variable displacement motor operated by hydraulic fluid supplied from the hydraulic pump to slew the slewing body; a slewing speed sensor that detects a slewing speed (Vs) of the slewing body; and a controller that controls a capacity of the slewing motor, characterized in that in the controller, speed ranges with respect to the slewing speed (Vs) are set, the speed ranges including a low speed range in which any slewing speed (Vs) is less than or equal to a certain value and a high speed range in which any slewing speed (Vs) is higher than that in the low speed range; and the controller is configured to perform a large-capacity-in-low-speed-range control of controlling the slewing motor capacity so as to make the slewing motor capacity when the slewing speed (Vs) detected by the slewing speed sensor is in the low-speed range be greater than the slewing motor capacity when the slewing speed (Vs) is in the high speed range.
A link device (100, 200) for a robot, comprising: a 1st position control section comprising 1st four links hingedly joined together and 1st output link; and a 2nd position control section comprising 2-1st four links hingedly joined together and 2-2nd four links hingedly joined together; wherein the 1st four links comprising a 1st fixed link, a 1st connecting rod positioned at an opposite side of the 1st fixed link, an 1st input-side transmission link connecting the 1st fixed link to one end of the 1st connecting rod, an 1st output-side transmission link positioned at an opposite side of the 1st input-side transmission link and the 1st output link coupled to the 1st output-side transmission link to be rotated by the 1st output-side transmission link, wherein the 2-1st four links comprising a 2-1st fixed link, a 2-1st connecting rod positioned at an opposite side of the 2-1st fixed link, an 2-1st input-side transmission link connecting the 2-1st fixed link to one end of the 2-1st connecting rod, and an 2-1st output-side transmission link positioned at an opposite side of the 2-1st input-side transmission link, wherein the 2-2nd four links comprising a 2-2nd fixed link, a 2-2nd connecting rod positioned at an opposite side of the 2-2nd fixed link, an 2-2nd input-side transmission link connecting the 2-2nd fixed link to one end of the 2-2nd connecting rod, and an 2-2nd output-side transmission link positioned at an opposite side of the 2-2nd input-side transmission link, and wherein the 1st output link and the 2-2nd fixed link are integrally coupled in a stacking arrangement. a 1st position control section comprising 1st four links hingedly joined together and 1st output link; and a 2nd position control section comprising 2-1st four links hingedly joined together and 2-2nd four links hingedly joined together; wherein the 1st four links comprising a 1st fixed link, a 1st connecting rod positioned at an opposite side of the 1st fixed link, an 1st input-side transmission link connecting the 1st fixed link to one end of the 1st connecting rod, an 1st output-side transmission link positioned at an opposite side of the 1st input-side transmission link and the 1st output link coupled to the 1st output-side transmission link to be rotated by the 1st output-side transmission link, wherein the 2-1st four links comprising a 2-1st fixed link, a 2-1st connecting rod positioned at an opposite side of the 2-1st fixed link, an 2-1st input-side transmission link connecting the 2-1st fixed link to one end of the 2-1st connecting rod, and an 2-1st output-side transmission link positioned at an opposite side of the 2-1st input-side transmission link, wherein the 2-2nd four links comprising a 2-2nd fixed link, a 2-2nd connecting rod positioned at an opposite side of the 2-2nd fixed link, an 2-2nd input-side transmission link connecting the 2-2nd fixed link to one end of the 2-2nd connecting rod, and an 2-2nd output-side transmission link positioned at an opposite side of the 2-2nd input-side transmission link, and wherein the 1st output link and the 2-2nd fixed link are integrally coupled in a stacking arrangement.
Composite pane, at least comprising - an outer pane and an inner pane which are joined to one another via a first thermoplastic intermediate layer arranged directly adjacent the outer pane and a second thermoplastic intermediate layer arranged directly adjacent the inner pane, and - an inlay element which is arranged in a region of the composite pane between the first thermoplastic intermediate layer and the second thermoplastic intermediate layer, wherein the inner pane has a cutout and the second thermoplastic intermediate layer has a cutout, and the cutout of the second thermoplastic intermediate layer is, when looked through, arranged completely within the region in which the inlay element is arranged, and the cutout of the inner pane is, when looked through, arranged completely within the cutout of the second thermoplastic intermediate layer. - an outer pane and an inner pane which are joined to one another via a first thermoplastic intermediate layer arranged directly adjacent the outer pane and a second thermoplastic intermediate layer arranged directly adjacent the inner pane, and - an inlay element which is arranged in a region of the composite pane between the first thermoplastic intermediate layer and the second thermoplastic intermediate layer,
Height-adjustable apparatus, with at least two synchronously height-adjustable lifting devices (2, 3) which in each case have a stand element (4, 7) and a lifting element (5, 8) which is height-adjustable relative to the former, the height adjustment taking place by way of flexible drive elements (6, 9) which are configured by way of deflection devices (11, 13) to raise each lifting element (5, 8) relative to the associated stand element (4, 7); each flexible drive element (6, 9) being fastened in a non-positive and/or positively locking manner to two lifting devices (2, 3), and lengthening in the region of the first lifting device bringing about synchronous shortening in the region of the second lifting device; and each flexible drive element (6, 9) being configured to raise only one lifting element (5, 8) relative to the associated stand element (4, 7); a locking device being provided for locking each flexible drive element (6, 9) by means of a non-positive and/or positively locking action on the said flexible drive element (6, 9), and the locking device additionally being configured for the synchronization of the movement of the flexible drive elements (6, 9); the locking device having a shaft for the non-positive and/or positively locking movement, locking and synchronization of the flexible drive elements (6, 9), and characterized in that deflection rollers (32, 33, 34, 35) for securing the non-positive connection and/or positively locking connection of the flexible drive elements (6, 9) to the shaft are provided in the region of the forerun and/or backlash of the flexible drive elements (6, 9) relative to the shaft. each flexible drive element (6, 9) being fastened in a non-positive and/or positively locking manner to two lifting devices (2, 3), and lengthening in the region of the first lifting device bringing about synchronous shortening in the region of the second lifting device; and each flexible drive element (6, 9) being configured to raise only one lifting element (5, 8) relative to the associated stand element (4, 7); a locking device being provided for locking each flexible drive element (6, 9) by means of a non-positive and/or positively locking action on the said flexible drive element (6, 9), and the locking device additionally being configured for the synchronization of the movement of the flexible drive elements (6, 9); the locking device having a shaft for the non-positive and/or positively locking movement, locking and synchronization of the flexible drive elements (6, 9), and characterized in that deflection rollers (32, 33, 34, 35) for securing the non-positive connection and/or positively locking connection of the flexible drive elements (6, 9) to the shaft are provided in the region of the forerun and/or backlash of the flexible drive elements (6, 9) relative to the shaft.
A content distribution system constituted with a content distribution device and a plurality of receiving terminals connected mutually via a network, the content distribution device transmitting content data to the receiving terminals, wherein: the content distribution device comprises content packet transmission means for transmitting the content data to the receiving terminals, probe packet transmission means for transmitting probe packets for estimating a state of the network to the receiving terminals, probe packet reception means for receiving return packets for the probe packets from the receiving terminals, and transmission control means for specifying round-trip time from transmission of the probe packets to reception of the return packets, and determining a transmission interval of the probe packets and the bit rate of the content data to be transmitted from the round-trip time; and the transmission control means defines the reception terminals having similar time variations in the bit rate among the receiving terminals as a small group, and determines the transmission interval of the probe packets and the bit rate of the content data to be transmitted collectively for the receiving terminals belonging to the same small group. the content distribution device comprises content packet transmission means for transmitting the content data to the receiving terminals, probe packet transmission means for transmitting probe packets for estimating a state of the network to the receiving terminals, probe packet reception means for receiving return packets for the probe packets from the receiving terminals, and transmission control means for specifying round-trip time from transmission of the probe packets to reception of the return packets, and determining a transmission interval of the probe packets and the bit rate of the content data to be transmitted from the round-trip time; and the transmission control means defines the reception terminals having similar time variations in the bit rate among the receiving terminals as a small group, and determines the transmission interval of the probe packets and the bit rate of the content data to be transmitted collectively for the receiving terminals belonging to the same small group.
A method of obtaining cardiomyocyte lineage cells from human embryonic stem (hES) cells, comprising in the following order: a) plating undifferentiated hES cells directly onto a solid surface without forming embryoid bodies, wherein the surface has a substrate to which cardiomyocyte lineage cells adhere; b) permitting the plated hES cells to establish onto the substrate; and c) culturing the established cells in the absence of serum and feeder cells, but in the presence of an activin and a bone morphogenic protein; d) optionally culturing the cells from c) in the absence of either an activin or a bone morphogenic protein. a) plating undifferentiated hES cells directly onto a solid surface without forming embryoid bodies, wherein the surface has a substrate to which cardiomyocyte lineage cells adhere; b) permitting the plated hES cells to establish onto the substrate; and c) culturing the established cells in the absence of serum and feeder cells, but in the presence of an activin and a bone morphogenic protein; d) optionally culturing the cells from c) in the absence of either an activin or a bone morphogenic protein.
A strain gauge comprising: a flexible substrate; and a resistor, characterized by further comprising a functional layer formed of a metal, an alloy, or a metal compound, directly on one surface of the substrate, wherein the resistor is formed of a film including Cr, CrN and Cr 2 N, directly on one surface of the functional layer, and wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor, and the crystal growth causes a film of the resistor formed with a main component to be formed. a flexible substrate; and a resistor, characterized by further comprising a functional layer formed of a metal, an alloy, or a metal compound, directly on one surface of the substrate, wherein the resistor is formed of a film including Cr, CrN and Cr 2 N, directly on one surface of the functional layer, and wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor, and the crystal growth causes a film of the resistor formed with a main component to be formed.