mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a floor board, said floor board comprising a decorative surface layer applied to a substrate, said method comprising: providing a substrate material comprising MDF/HDF material; applying a decorative surface layer to a top surface of said substrate material; dividing said substrate material into planks having approximately the size of said floor board; profiling an edge of said planks; said MDF/HDF material being exposed at said edge; impregnating said edge with an impregnation agent; characterized in that said impregnation agent comprises a solvent different from water and having a flash point above 30°C. providing a substrate material comprising MDF/HDF material; applying a decorative surface layer to a top surface of said substrate material; dividing said substrate material into planks having approximately the size of said floor board; profiling an edge of said planks; said MDF/HDF material being exposed at said edge; impregnating said edge with an impregnation agent;
A charging device for an electric vehicle battery, the charging device comprising a casing containing electric current conversion means, the casing being provided with a connector making it possible to connect the charging device directly to the electric vehicle, without intermediate power cable, so as to power the battery of the electric vehicle, and the charging device being able to be powered by an input current from a power source, to convert, via the electric current conversion means, the input current into a direct output current, and to power the battery of the electric vehicle with said direct output current; the charging device including an operating mode in which the power source is an alternating power source and the input current is an alternating current, and characterized in that the device includes an operating mode in which the power source is a direct power source and the input current is a direct current.
Sintered bead having: - the following crystal phases, in percentages by mass based on crystal phases and for a total of 100%: - 25% ≤ zircon, or "Z 1 ", ≤ 94%; - 4% ≤ stabilized zirconia + stabilized hafnia, or "Z 2 ", ≤ 61%; - monoclinic zirconia + monoclinic hafnia, or "Z 3 ", ≤ 50%; - corundum ≤ 57%; - crystal phases other than Z 1, Z 2, Z 3 and corundum < 10%; - the following chemical composition, in percentages by mass based on oxides and for a total of 100%: 33% ≤ ZrO 2 + HfO 2, or "Z 4 ", ≤ 83.4%; HfO 2 ≤ 2%; 10.6% ≤ SiO 2 ≤ 34.7%; Al 2 O 3 ≤ 50%; 0% ≤ Y 2 O 3, or "Z 5 "; 0% ≤ CeO 2, or "Z 6 "; 0.3% ≤ CeO 2 + Y 2 O 3 ≤ 19%, provided that CeO 2 + 3.76*Y 2 O 3 ≥ 0.128*Z, and CeO 2 + 1.3*Y 2 O 3 ≤ 0.318*Z, with Z = Z 4 + Z 5 + Z 6 − 0.67 * Z 1 * Z 4 + Z 5 + Z 6 / 0.67 * Z 1 + Z 2 + Z 3; MgO ≤ 5%; CaO ≤ 2%; oxides other than ZrO 2, HfO 2, SiO 2, Al 2 O 3, MgO, CaO, CeO 2 and Y 2 O 3 < 5.0%. - the following crystal phases, in percentages by mass based on crystal phases and for a total of 100%: - 25% ≤ zircon, or "Z 1 ", ≤ 94%; - 4% ≤ stabilized zirconia + stabilized hafnia, or "Z 2 ", ≤ 61%; - monoclinic zirconia + monoclinic hafnia, or "Z 3 ", ≤ 50%; - corundum ≤ 57%; - crystal phases other than Z 1, Z 2, Z 3 and corundum < 10%; - 25% ≤ zircon, or "Z 1 ", ≤ 94%; - 4% ≤ stabilized zirconia + stabilized hafnia, or "Z 2 ", ≤ 61%; - monoclinic zirconia + monoclinic hafnia, or "Z 3 ", ≤ 50%; - corundum ≤ 57%; - crystal phases other than Z 1, Z 2, Z 3 and corundum < 10%; - the following chemical composition, in percentages by mass based on oxides and for a total of 100%: 33% ≤ ZrO 2 + HfO 2, or "Z 4 ", ≤ 83.4%; HfO 2 ≤ 2%; 10.6% ≤ SiO 2 ≤ 34.7%; Al 2 O 3 ≤ 50%; 0% ≤ Y 2 O 3, or "Z 5 "; 0% ≤ CeO 2, or "Z 6 "; 0.3% ≤ CeO 2 + Y 2 O 3 ≤ 19%, provided that CeO 2 + 3.76*Y 2 O 3 ≥ 0.128*Z, and CeO 2 + 1.3*Y 2 O 3 ≤ 0.318*Z, with Z = Z 4 + Z 5 + Z 6 − 0.67 * Z 1 * Z 4 + Z 5 + Z 6 / 0.67 * Z 1 + Z 2 + Z 3; MgO ≤ 5%; CaO ≤ 2%; oxides other than ZrO 2, HfO 2, SiO 2, Al 2 O 3, MgO, CaO, CeO 2 and Y 2 O 3 < 5.0%. 33% ≤ ZrO 2 + HfO 2, or "Z 4 ", ≤ 83.4%; HfO 2 ≤ 2%; 10.6% ≤ SiO 2 ≤ 34.7%; Al 2 O 3 ≤ 50%; 0% ≤ Y 2 O 3, or "Z 5 "; 0% ≤ CeO 2, or "Z 6 "; 0.3% ≤ CeO 2 + Y 2 O 3 ≤ 19%, provided that CeO 2 + 3.76*Y 2 O 3 ≥ 0.128*Z, and CeO 2 + 1.3*Y 2 O 3 ≤ 0.318*Z, CeO 2 + 3.76*Y 2 O 3 ≥ 0.128*Z, and CeO 2 + 1.3*Y 2 O 3 ≤ 0.318*Z, with Z = Z 4 + Z 5 + Z 6 − 0.67 * Z 1 * Z 4 + Z 5 + Z 6 / 0.67 * Z 1 + Z 2 + Z 3; MgO ≤ 5%; CaO ≤ 2%; oxides other than ZrO 2, HfO 2, SiO 2, Al 2 O 3, MgO, CaO, CeO 2 and Y 2 O 3 < 5.0%.
A nonwoven web comprising non-thermoplastic fibers having a fiber length of less than 15 mm, from less than 0.5% by weight of a binder and from 0% to less than 5% by weight of the nonwoven web on a dry fiber basis of thermoplastic fibers, wherein the nonwoven web exhibits one or more compressed sites comprising at least a portion of one or more of the non-thermoplastic fibers, wherein at least one of the one or more compressed sites is visible when wet.
A computer-readable memory or storage device storing computer-executable instructions for causing a computing device, when programmed thereby, to perform video sharing with real-time digital video stabilization, the video sharing with real-time digital video stabilization including: for each of multiple frames of a video sequence captured by a camera of the computing device: estimating a global motion transform (210, 220) that represents jittery motion associated with shakiness of the computing device, wherein the global motion transform uses parameters for zoom, rotation and translation motion, wherein estimating the global motion transform comprises determining an estimate of the parameters for the global motion transform, wherein the estimate of each of the parameters is subjected to a lower limit (T1X) and an upper limit (T2X), wherein the parameters are used if the parameters are less than the lower limit, wherein the parameters are limited to the lower limit if the parameters exceed the lower limit and remain less than the upper limit, and wherein the global motion transform is reset if the parameters exceed the upper limit (T2X); forming a stabilized video, including, for each of at least some of the multiple frames of the video sequence, cropping a predefined percentage at boundaries of the frame and warping at least a portion of the cropped frame based on the global motion transform to compensate for the jittery motion; and initiating uploading of the stabilized video to a video sharing site or social networking site over a connection to a network. for each of multiple frames of a video sequence captured by a camera of the computing device: estimating a global motion transform (210, 220) that represents jittery motion associated with shakiness of the computing device, wherein the global motion transform uses parameters for zoom, rotation and translation motion, wherein estimating the global motion transform comprises determining an estimate of the parameters for the global motion transform, wherein the estimate of each of the parameters is subjected to a lower limit (T1X) and an upper limit (T2X), wherein the parameters are used if the parameters are less than the lower limit, wherein the parameters are limited to the lower limit if the parameters exceed the lower limit and remain less than the upper limit, and wherein the global motion transform is reset if the parameters exceed the upper limit (T2X); forming a stabilized video, including, for each of at least some of the multiple frames of the video sequence, cropping a predefined percentage at boundaries of the frame and warping at least a portion of the cropped frame based on the global motion transform to compensate for the jittery motion; and initiating uploading of the stabilized video to a video sharing site or social networking site over a connection to a network.
An optical signal modulation apparatus, comprising a laser, wherein each of at least one first output end and at least one second output end of the laser is connected to an electro-absorption modulator, EAM, the first output end of the laser is disposed on one side of the laser, and the second output end is disposed on the other side of the laser; the laser is configured to generate at least two optical signals, wherein at least one of the optical signals is sent to at least one EAM by using the at least one first output end, and at least one of the optical signals is sent to at least one EAM by using the at least one second output end; and each EAM is configured to receive one electrical signal that carries channel data, receive one of the optical signals sent by the laser, and modulate the received electrical signal onto the received optical signal for outputting; wherein the optical signal modulation apparatus is characterized in: at least one optical reflection apparatus, said at least one optical reflection apparatus is connected to an output end of an EAM connected to one first output end; and each optical reflection apparatus is configured to reflect one optical signal that is output at the first output end, so that the reflected optical signal is in a same direction as an optical signal that is output at the second output end; and at least one optical path compensation component, wherein one optical path compensation component is connected to an output end of an EAM being connected to one second output end, and each optical path compensation component is configured to perform optical path compensation on one optical signal that is output at the second output end, so that a compensated optical signal is synchronized with the optical signal that is reflected by said the optical reflection apparatus and that is output at the first output end. at least one optical reflection apparatus, said at least one optical reflection apparatus is connected to an output end of an EAM connected to one first output end; and each optical reflection apparatus is configured to reflect one optical signal that is output at the first output end, so that the reflected optical signal is in a same direction as an optical signal that is output at the second output end; and at least one optical path compensation component, wherein one optical path compensation component is connected to an output end of an EAM being connected to one second output end, and each optical path compensation component is configured to perform optical path compensation on one optical signal that is output at the second output end, so that a compensated optical signal is synchronized with the optical signal that is reflected by said the optical reflection apparatus and that is output at the first output end.
A frit for a conductive ink for application to an anti-reflective coating on a semiconductor for use as a photovoltaic cell comprising: TeO 2, B 2 O 3, Bi 2 O 3 and SiO 2, the frit containing no intentionally-added lead, the amount of lead being less than 1,000 ppm, wherein the TeO 2 is present in an amount in the range from 0.1% by weight to about 10% by weight, Bi 2 O 3 is present in an amount from 40 to 95 % by weight and B 2 O 3 is present in an amount from 0.1 to 10 % by weight.
A control device for a continuously variable transmission of a vehicle which includes a belt wound around a primary pulley and a secondary pulley, and which is shifted by controlling pulley hydraulic pressures of the primary pulley and the secondary pulley, the control device comprising: a control valve unit comprising a primary solenoid valve configured to control a primary pulley pressure, a secondary solenoid valve configured to control a secondary pulley pressure and a pilot valve; a line pressure generating means (3, 21) configured to generate a line pressure; the pilot valve configured to supply a pilot pressure regulated so as not to exceed a first predetermined pressure when the line pressure exceeds the first predetermined pressure; a control means configured to generate the pulley hydraulic pressures from the line pressure supplied as a source pressure of the pulley hydraulic pressures by controlling solenoid valves (33, 34) by the pilot pressure; and an oil vibration sensing means configured to sense an oil vibration generated within the control valve unit; characterized by a line pressure increase means configured to increase the line pressure to be greater than the first predetermined pressure when the oil vibration sensing means senses the oil vibration in a travelling state where the line pressure is equal to or smaller than the first predetermined pressure. a control valve unit comprising a primary solenoid valve configured to control a primary pulley pressure, a secondary solenoid valve configured to control a secondary pulley pressure and a pilot valve; a line pressure generating means (3, 21) configured to generate a line pressure; the pilot valve configured to supply a pilot pressure regulated so as not to exceed a first predetermined pressure when the line pressure exceeds the first predetermined pressure; a control means configured to generate the pulley hydraulic pressures from the line pressure supplied as a source pressure of the pulley hydraulic pressures by controlling solenoid valves (33, 34) by the pilot pressure; and an oil vibration sensing means configured to sense an oil vibration generated within the control valve unit; characterized by a line pressure increase means configured to increase the line pressure to be greater than the first predetermined pressure when the oil vibration sensing means senses the oil vibration in a travelling state where the line pressure is equal to or smaller than the first predetermined pressure.
An adhesive sealing member satisfying the following requirements: (a) a requirement that the adhesive sealing member is suitable for use in a fuel cell; (b) a requirement that the adhesive sealing member includes an olefin thermoplastic resin as a main component; and (c) a requirement that the adhesive sealing member contains resin particles composed of at least one of a crosslinked acrylic polymer and a crosslinked styrene polymer, the resin particles having a heat-resisting temperature higher than a melting point of the olefin thermoplastic resin and having an average particle size of 9 to 50 μm. (a) a requirement that the adhesive sealing member is suitable for use in a fuel cell; (b) a requirement that the adhesive sealing member includes an olefin thermoplastic resin as a main component; and (c) a requirement that the adhesive sealing member contains resin particles composed of at least one of a crosslinked acrylic polymer and a crosslinked styrene polymer, the resin particles having a heat-resisting temperature higher than a melting point of the olefin thermoplastic resin and having an average particle size of 9 to 50 μm.
A method for controlling a remote pneumatically operated valve implemented within a process control system, the method comprising: temporarily driving, via one or more processors, a battery-powered pilot valve assembly to place an operatively coupled output valve in a switch position; receiving, by the one or more processors, a temperature measurement associated with an operating environment of the battery-powered pilot valve assembly; determining, by the one or more processors, if the temperature measurement is below a temperature threshold level; and continuously driving, by the one or more processors, the battery-powered pilot valve assembly to maintain the output valve in the switch position if the temperature measurement is below the temperature threshold level. temporarily driving, via one or more processors, a battery-powered pilot valve assembly to place an operatively coupled output valve in a switch position; receiving, by the one or more processors, a temperature measurement associated with an operating environment of the battery-powered pilot valve assembly; determining, by the one or more processors, if the temperature measurement is below a temperature threshold level; and continuously driving, by the one or more processors, the battery-powered pilot valve assembly to maintain the output valve in the switch position if the temperature measurement is below the temperature threshold level.
A battery module comprising: battery terminals configured to be coupled to at least one power device: one or more battery cells configured to store energy; a charger; and a battery-management system (202, 204) configured to: determine whether a command to operate with the at least one power device has been received; charge, in a charge mode of operation responsive to receiving a wake-up signal from a first power device that the battery module is not configured to operate with by not receiving a system start-up signal, the one or more battery cells to a first state of charge with power derived from the first power device, and charge, in a normal mode of operation responsive to receiving a wake-up signal from a second power device and a system start-up signal from the second power device indicating that the battery module is configured to operate with the second power device, the one or more battery cells to a second state of charge with power derived from the second power device, the second state of charge being greater than the first state of charge. one or more battery cells configured to store energy; a charger; and a battery-management system (202, 204) configured to: determine whether a command to operate with the at least one power device has been received; charge, in a charge mode of operation responsive to receiving a wake-up signal from a first power device that the battery module is not configured to operate with by not receiving a system start-up signal, the one or more battery cells to a first state of charge with power derived from the first power device, and charge, in a normal mode of operation responsive to receiving a wake-up signal from a second power device and a system start-up signal from the second power device indicating that the battery module is configured to operate with the second power device, the one or more battery cells to a second state of charge with power derived from the second power device, the second state of charge being greater than the first state of charge. determine whether a command to operate with the at least one power device has been received; charge, in a charge mode of operation responsive to receiving a wake-up signal from a first power device that the battery module is not configured to operate with by not receiving a system start-up signal, the one or more battery cells to a first state of charge with power derived from the first power device, and charge, in a normal mode of operation responsive to receiving a wake-up signal from a second power device and a system start-up signal from the second power device indicating that the battery module is configured to operate with the second power device, the one or more battery cells to a second state of charge with power derived from the second power device, the second state of charge being greater than the first state of charge.
A medical device containing a separately prepared freeze-dried cake composition comprising aripiprazole as an active ingredient in a storage container whose inner wall is treated with silicone, wherein there is a space between the inner wall of the storage container and the cake composition.
A battery, comprising: - a battery monitoring system integrated within the battery, wherein the battery monitoring system is disposed within a battery housing and comprises: - a diagnostic system configured to monitor or store at least one parameter of the battery, wherein the diagnostic system comprises at least one measurement device; - a receiver communicatively coupled to the diagnostic system; and a transmitter communicatively coupled to the diagnostic system, and configured to activate the diagnostic system upon receipt of a first wireless signal by the receiver and to transmit a second wireless signal indicative of the at least one parameter of the battery to an external device, wherein the at least one parameter of the battery comprises a time of use, a time since manufacture of the battery, a battery voltage, a battery temperature, and/or a battery current, and wherein the diagnostic system is configured to be activated after the time since manufacture of the battery passes a threshold value. - a battery monitoring system integrated within the battery, wherein the battery monitoring system is disposed within a battery housing and comprises: - a diagnostic system configured to monitor or store at least one parameter of the battery, wherein the diagnostic system comprises at least one measurement device; - a receiver communicatively coupled to the diagnostic system; and a transmitter communicatively coupled to the diagnostic system, and configured to activate the diagnostic system upon receipt of a first wireless signal by the receiver and to transmit a second wireless signal indicative of the at least one parameter of the battery to an external device,
A disposable automatic painless safe hemostix, comprising: - a jacket is provided with a falcula-oriented slant and a male fitting limit reinforcement at its inner wall; - a inner sleeve is provided with a falcula fixing surface and a male fitting; - a needle module is nested into the inner sleeve at its one end and extends into the jacket at the other end; and - the needle module is provided with a puncturing needle tube at its inside and a falcula, wherein the falcula fits the falcula fixing surface at its one end and the falcula-oriented slant at the other end; - a spring, wherein the said jacket is provided with an inner sleeve shifting cavity inside it at its left end, the inner sleeve shifting cavity is provided with a falcula-oriented slant at its top and bottom of right end; the jacket is provided with a spring mounting pole shifting hole inside it at its right end, the spring mounting pole shifting hole is provided with a spring limiting step inside it., the spring limiting step is provided with a spring mounting hole at its left side and with a spring mount pole extending hole at its right side, the aperture of spring mounting hole is larger than that of spring mount pole extending hole. - a jacket is provided with a falcula-oriented slant and a male fitting limit reinforcement at its inner wall; - a inner sleeve is provided with a falcula fixing surface and a male fitting; - a needle module is nested into the inner sleeve at its one end and extends into the jacket at the other end; and - the needle module is provided with a puncturing needle tube at its inside and a falcula, wherein the falcula fits the falcula fixing surface at its one end and the falcula-oriented slant at the other end; - a spring,