mhurhangee/ep-ind-claims huggingface dataset:
A load drive system for driving first, second, and third loads, comprising: first, second, and third three-phase inverters each having an input terminal and an output terminal, the input terminals of the first, the second, and the third three-phase inverters being connected to a direct current power source, the output terminals of the first, the second, and the third three-phase inverters being respectively connected to the first, the second, and the third loads; a first control unit operable to (i) generate a first carrier signal and (ii) control the first three-phase inverter according to the generated first carrier signal; a second control unit operable to (i) generate a second carrier signal which is inverted with respect to the first carrier signal and has a same frequency and a same phase as the first carrier signal and (ii) control the second three-phase inverter according to the generated second carrier signal; and a third control unit operable to (i) generate a third carrier signal, and (ii) control the third three-phase inverter according to the generated third carrier signal characterized in that the first carrier signal is of a sawtooth waveform, the second carrier signal is of a sawtooth waveform, and the third carrier signal is of a triangular waveform having ramps respectively equal to the sawtooth waveform of the first carrier signal and the sawtooth waveform of the second carrier signal, the triangular waveform either having a same phase as the first and the second carrier signals or being out of phase by half a period relative to the first and the second carrier signals. first, second, and third three-phase inverters each having an input terminal and an output terminal, the input terminals of the first, the second, and the third three-phase inverters being connected to a direct current power source, the output terminals of the first, the second, and the third three-phase inverters being respectively connected to the first, the second, and the third loads; a first control unit operable to (i) generate a first carrier signal and (ii) control the first three-phase inverter according to the generated first carrier signal; a second control unit operable to (i) generate a second carrier signal which is inverted with respect to the first carrier signal and has a same frequency and a same phase as the first carrier signal and (ii) control the second three-phase inverter according to the generated second carrier signal; and a third control unit operable to (i) generate a third carrier signal, and (ii) control the third three-phase inverter according to the generated third carrier signal characterized in that the first carrier signal is of a sawtooth waveform, the second carrier signal is of a sawtooth waveform, and the third carrier signal is of a triangular waveform having ramps respectively equal to the sawtooth waveform of the first carrier signal and the sawtooth waveform of the second carrier signal, the triangular waveform either having a same phase as the first and the second carrier signals or being out of phase by half a period relative to the first and the second carrier signals.
A flapper element for a check valve comprising a bumper element for engagement with a stop provided on the check valve, the bumper element being an elastically deformable tongue extending from a surface of the flapper element and having a base and a tip; wherein the elastically deformable tongue is formed integrally with the flapper element or is machined into the flapper element and wherein a groove is formed between the elastically deformable tongue and the surface of the flapper element; characterized in that the groove extends from a proximal end at the base of the elastically deformable tongue to a distal end at the tip of the elastically deformable tongue, the groove diverging from its proximal end to its distal end.
A method for producing herpesvirus, which method comprises culturing said herpesvirus in a cell culture that comprises aurintricarboxylic acid and serum, wherein aurintricarboxylic acid is present in an amount that increases yield of herpesvirus.
Catalyst system for producing ethylene copolymers in a high temperature solution process, the catalyst system comprising (i) a metallocene complex of formula wherein M is Hf or Zr, X is a sigma ligand, L is a bridge of the formula -SiR 8 2 -, wherein each R 8 is independently a C 1 -C 20 -hydrocarbyl, tri(C 1 -C 20 -alkyl)silyl, C 6 -C 20 -aryl, C 7 -C 20 -arylalkyl or C 7 -C 20 -alkylaryl, n is 0, 1 or 2, R 1 and R 1' are the same or can be different and can be a linear or branched C 1 -C 6 -alkyl group, R 2 and R 2' are the same or are different and are a CH 2 -R 9 group, with R 9 being H or linear or branched C 1 -C 6 -alkyl group, R 5 and R 5' are different and one is H and the other is an -OR group, wherein R is a C 1 -C 6 -alkyl group; R 6 and R 6' are the same or are different and can be H or a C(R 10) 3 group, with R 10 being the same or different and R 10 can be H or a linear or branched C 1 -C 6 -alkyl group; and R 7 and R 7' can be the same or are different and can be H or a linear or branched C 1 -C 6 -alkyl group; (ii) an aluminoxane cocatalyst; and (iii) a boron containing cocatalyst. (i) a metallocene complex of formula wherein M is Hf or Zr, X is a sigma ligand, L is a bridge of the formula -SiR 8 2 -, wherein each R 8 is independently a C 1 -C 20 -hydrocarbyl, tri(C 1 -C 20 -alkyl)silyl, C 6 -C 20 -aryl, C 7 -C 20 -arylalkyl or C 7 -C 20 -alkylaryl, n is 0, 1 or 2, R 1 and R 1' are the same or can be different and can be a linear or branched C 1 -C 6 -alkyl group, R 2 and R 2' are the same or are different and are a CH 2 -R 9 group, with R 9 being H or linear or branched C 1 -C 6 -alkyl group, R 5 and R 5' are different and one is H and the other is an -OR group, wherein R is a C 1 -C 6 -alkyl group; R 6 and R 6' are the same or are different and can be H or a C(R 10) 3 group, with R 10 being the same or different and R 10 can be H or a linear or branched C 1 -C 6 -alkyl group; and R 7 and R 7' can be the same or are different and can be H or a linear or branched C 1 -C 6 -alkyl group; M is Hf or Zr, X is a sigma ligand, L is a bridge of the formula -SiR 8 2 -, wherein each R 8 is independently a C 1 -C 20 -hydrocarbyl, tri(C 1 -C 20 -alkyl)silyl, C 6 -C 20 -aryl, C 7 -C 20 -arylalkyl or C 7 -C 20 -alkylaryl, n is 0, 1 or 2, R 1 and R 1' are the same or can be different and can be a linear or branched C 1 -C 6 -alkyl group, R 2 and R 2' are the same or are different and are a CH 2 -R 9 group, with R 9 being H or linear or branched C 1 -C 6 -alkyl group, R 5 and R 5' are different and one is H and the other is an -OR group, wherein R is a C 1 -C 6 -alkyl group; R 6 and R 6' are the same or are different and can be H or a C(R 10) 3 group, with R 10 being the same or different and R 10 can be H or a linear or branched C 1 -C 6 -alkyl group; and R 7 and R 7' can be the same or are different and can be H or a linear or branched C 1 -C 6 -alkyl group; (ii) an aluminoxane cocatalyst; and (iii) a boron containing cocatalyst.
A computer-implemented method of processing one or more video images, the method comprising: selecting (1010, 1110) a coding mode from a group of plural available coding modes, wherein the group of plural available coding modes comprises a row-prediction coding mode and a column-prediction coding mode; arid processing (1020, 1120) a bit plane according to the selected coding mode, wherein the bit plane includes binary information for plural macroblocks of a video image, wherein the binary information represents characteristics of the plural macroblocks of the video image, wherein each of the plural macroblocks includes plural pixels, wherein the binary information includes one binary symbol for each of the plural macroblocks of the video image, and characterized in that: in the row-prediction coding mode for a row of the macroblocks, a first bit indicates whether the binary symbol for each of the macroblocks in the row has a certain value and, if not, the first bit is followed by a bit field equal in length to number of the macroblocks in the row, each bit in the bit field indicating the value of the binary symbol for a corresponding one of the macroblocks in the row; and in the column-prediction coding mode for a column of the macroblocks, a first bit indicates whether the binary symbol for each of the macroblocks in the column has a certain value and, if not, the first bit is followed by a bit fiel equal in length to number of the macroblocks in the column, each bit in the bit field indicating the value of the binary symbol for a corresponding one of the macroblocks in the column. selecting (1010, 1110) a coding mode from a group of plural available coding modes, wherein the group of plural available coding modes comprises a row-prediction coding mode and a column-prediction coding mode; arid processing (1020, 1120) a bit plane according to the selected coding mode, wherein the bit plane includes binary information for plural macroblocks of a video image, wherein the binary information represents characteristics of the plural macroblocks of the video image, wherein each of the plural macroblocks includes plural pixels, wherein the binary information includes one binary symbol for each of the plural macroblocks of the video image, and characterized in that: in the row-prediction coding mode for a row of the macroblocks, a first bit indicates whether the binary symbol for each of the macroblocks in the row has a certain value and, if not, the first bit is followed by a bit field equal in length to number of the macroblocks in the row, each bit in the bit field indicating the value of the binary symbol for a corresponding one of the macroblocks in the row; and in the column-prediction coding mode for a column of the macroblocks, a first bit indicates whether the binary symbol for each of the macroblocks in the column has a certain value and, if not, the first bit is followed by a bit fiel equal in length to number of the macroblocks in the column, each bit in the bit field indicating the value of the binary symbol for a corresponding one of the macroblocks in the column.
A prosthetic knee joint with a hydraulic arrangement that comprises an extension chamber, a flexion chamber and a valve with - an inlet - an outlet that is connected to the inlet via a fluid connection, and - a valve body, which can be brought - by displacing it along a displacement direction - ∘ into a first position, in which the fluid connection is blocked, and ∘ a second position, in which the fluid connection is open, wherein the inlet of the valve is connected to the flexion chamber and the outlet of the valve is connected to the extension chamber, characterized in that the inlet is designed and arranged in such a way that a fluid entering through the inlet exerts a total force on the valve body that at least also acts in a force direction which is perpendicular to the displacement direction when the valve body is in the first position. - an inlet - an outlet that is connected to the inlet via a fluid connection, and - a valve body, which can be brought - by displacing it along a displacement direction - ∘ into a first position, in which the fluid connection is blocked, and ∘ a second position, in which the fluid connection is open, wherein the inlet of the valve is connected to the flexion chamber and the outlet of the valve is connected to the extension chamber, - a valve body, which can be brought - by displacing it along a displacement direction - ∘ into a first position, in which the fluid connection is blocked, and ∘ a second position, in which the fluid connection is open, ∘ into a first position, in which the fluid connection is blocked, and ∘ a second position, in which the fluid connection is open,
A method of placing under a protective atmosphere a watch case equipped with its movement, comprising the following steps: - mounting the watch case, not completely closed, in the housing of a setting comprising means for holding the watch as well as guide means (4, 13) of an actuator (7, 12) acting on a portion of the watch case; - introducing the setting in a flexible casing; - mounting the setting in the open casing in a device for placing under protective atmosphere; - decreasing the pressure in the device for placing under protective atmosphere; - closing the casing containing the setting; - removing the setting in the sealed casing from the device for placing under protective atmosphere; - closing the watch case by acting on the actuator (7, 12) from the outside of the casing so that it moves a portion of the watch along the guide means (4, 13) so as to close the watch; - opening the casing and separating the actuator (7, 12) from the portion of the watch case on which it acts. - mounting the watch case, not completely closed, in the housing of a setting comprising means for holding the watch as well as guide means (4, 13) of an actuator (7, 12) acting on a portion of the watch case; - introducing the setting in a flexible casing; - mounting the setting in the open casing in a device for placing under protective atmosphere; - decreasing the pressure in the device for placing under protective atmosphere; - closing the casing containing the setting; - removing the setting in the sealed casing from the device for placing under protective atmosphere; - closing the watch case by acting on the actuator (7, 12) from the outside of the casing so that it moves a portion of the watch along the guide means (4, 13) so as to close the watch; - opening the casing and separating the actuator (7, 12) from the portion of the watch case on which it acts.
A layup mandrel, comprising: a shell having a tool surface on which plies may be laid up, and an actuator mechanism coupled with the shell for changing the shape of the shell, characterized by the shell including a gap and a removable insert for filling the gap, the gap allowing contraction of the shell when the insert is removed to permit release of a layup formed on the shell.
A method for finishing a supplied building panel made of a wood-based material, especially MDF or HDF, with a lower side and an upper side featuring a decorative pattern, said upper side being sealed by applying an abrasion-resistant layer and a relief being embossed into at least the upper side, comprising the steps: (a) applying a decorative paper to the upper side and an overlay paper to the decorative paper as an abrasion-resistant layer, (b) providing the lower side with a backing layer, (c) feeding the structure prepared in this way to a short-cycle press and pressing it together at a pressure and a temperature, (d) during pressing, embossing the relief into the upper side at a depth, said relief being embossed as at least one strip-shaped depression with two opposite side walls (5.1, 5.2) and a connecting bottom wall (5.3), characterised in that before applying the decorative paper (e) applying a tempering agent to the upper side and (f) treating the upper side with superheated steam, at least in the areas in which the relief is to be embossed, to achieve a surface temperature of 30 - 50 °C. (a) applying a decorative paper to the upper side and an overlay paper to the decorative paper as an abrasion-resistant layer, (b) providing the lower side with a backing layer, (c) feeding the structure prepared in this way to a short-cycle press and pressing it together at a pressure and a temperature, (d) during pressing, embossing the relief into the upper side at a depth, said relief being embossed as at least one strip-shaped depression with two opposite side walls (5.1, 5.2) and a connecting bottom wall (5.3), (e) applying a tempering agent to the upper side and (f) treating the upper side with superheated steam, at least in the areas in which the relief is to be embossed, to achieve a surface temperature of 30 - 50 °C.
A method, comprising: determining, using a mixer, to initially gate on a channel having an audio signal; determining whether non-speech audio is present in the audio signal of the channel initially gated on by the mixer, wherein the mixer generates a mixed audio signal based on at least the audio signal of the channel initially gated on; minimizing, using one or more of filtering or attenuation, errant noise in the audio signal of the channel initially gated on during a time duration between the mixer determining to gate on the channel initially gated on and determining whether the non-speech audio is present in the audio signal of the channel initially gated on; and when the non-speech audio is determined to be present in the audio signal of the channel initially gated on, overriding the mixer by gating off the channel initially gated on to cause the mixer to generate the mixed audio signal without the audio signal of the channel initially gated on. determining, using a mixer, to initially gate on a channel having an audio signal; determining whether non-speech audio is present in the audio signal of the channel initially gated on by the mixer, wherein the mixer generates a mixed audio signal based on at least the audio signal of the channel initially gated on; minimizing, using one or more of filtering or attenuation, errant noise in the audio signal of the channel initially gated on during a time duration between the mixer determining to gate on the channel initially gated on and determining whether the non-speech audio is present in the audio signal of the channel initially gated on; and when the non-speech audio is determined to be present in the audio signal of the channel initially gated on, overriding the mixer by gating off the channel initially gated on to cause the mixer to generate the mixed audio signal without the audio signal of the channel initially gated on.
Load carrier foot having a mounting structure for mounting the load carrier foot on a vehicle, a tensioning screw (3; 6; 8; 11; 14) and a thread lock mechanism (5; 7; 9; 10; 12; 13; 15; 16) for preventing the tensioning screw (3; 6; 8; 11; 14) from coming loose, wherein the tensioning screw (3; 6; 8; 11; 14) comprises an engagement portion (31; 61; 82; 111; 141) formed in the outer periphery thereof and wherein the thread lock mechanism (5; 7; 9; 10; 12; 13; 15; 16) comprises an engagement device (51; 71; 93; 103; 123; 132; 152) engageable with the engagement portion (31; 61; 82; 111; 141) of the tensioning screw (3; 6; 8; 11; 14) characterized in that the engagement portion (31; 61; 82; 111; 141) is polygonally shaped, preferably hexagonally shaped and wherein the engagement device (51; 71; 93; 103; 123; 132; 152) comprises engagement walls (55a, 56a; 72, 73; 92; 104; 126; 132; 152) contactable with the engagement portion (31; 61; 82; 111; 141) and being movable with respect to the engagement portion (31; 61; 82; 111; 141).
A grinding mill comprising a drum wherein a plurality of balls are disposed in a freely movable manner having an inlet to feed particulate material inside the drum and an outlet to transfer fine material after grinding characterised in that it comprises a strain sensor mounted at an outer periphery of the drum so that providing a data to determine weight information of the drum wherein the strain sensor is connected to a transmitter which is transmitting the data to a receiver in data communication with a controller and the transmitter has a wireless signal module which is in communication with the receiver having a corresponding wireless module to transmit the data from the drum to a remote location.
An in vitro method for studying the effectiveness of one or more drugs for treating a disease or affliction characterised by altered ion and/or fluid transport, wherein the method comprises stimulation of one or more disease organoids generated from primary cells with said one or more drugs and measuring swelling of the one or more organoids, wherein swelling means a change in size of the one or more organoids due to fluid uptake or secretion.
Method for separating solids and liquids of a suspension, wherein - the suspension is introduced into the filter device, - the suspension is filtered, and wherein - the filter cake formed by the filtering of the suspension is pressed, characterized - in that only the surface of the filter cake is dried thermally, and - in that the dried surface of the filter cake is removed. - the suspension is introduced into the filter device, - the suspension is filtered, and wherein - the filter cake formed by the filtering of the suspension is pressed, - in that only the surface of the filter cake is dried thermally, and - in that the dried surface of the filter cake is removed.
A method for controlling a wind turbine having rotor blades with an adjustable blade angle, comprising the steps - operating the wind turbine in a partial load mode for wind velocities (Vw) up to a nominal wind velocity (V N), wherein in the partial load mode, a fixed partial load angle (α T) is provided for the blade angle (α), - operating the wind turbine in a full load mode for wind velocities (V W) above the nominal wind velocity (V N), wherein in the full load mode the blade angle (α) is enlarged with increasing wind velocity (V W) and has values above the partial load angle (α T), further comprising the steps - that in the partial load mode, a power is set as a function of the rotational speed and, starting from a predetermined rotational speed and/or starting from a predetermined power, the blade angle (α) is reduced as compared with the partial load angle (α T), and - that the blade angle (α) is adjusted as the rotational speed rises further or as the power rises further as a function of the rotational speed or the power, so that the blade angle (α) is reset to the partial load angle (α T) before the full load mode is reached. - operating the wind turbine in a partial load mode for wind velocities (Vw) up to a nominal wind velocity (V N), wherein in the partial load mode, a fixed partial load angle (α T) is provided for the blade angle (α), - operating the wind turbine in a full load mode for wind velocities (V W) above the nominal wind velocity (V N), wherein in the full load mode the blade angle (α) is enlarged with increasing wind velocity (V W) and has values above the partial load angle (α T), - that in the partial load mode, a power is set as a function of the rotational speed and, starting from a predetermined rotational speed and/or starting from a predetermined power, the blade angle (α) is reduced as compared with the partial load angle (α T), and - that the blade angle (α) is adjusted as the rotational speed rises further or as the power rises further as a function of the rotational speed or the power, so that the blade angle (α) is reset to the partial load angle (α T) before the full load mode is reached.