mhurhangee/ep-ind-claims huggingface dataset:
Polymer composition comprising (a) a propylene copolymer having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of more than 2.0 to 15.0 g/10min, a comonomer content in the range of more than 7.5 to 16.5 wt.-%, and a xylene cold soluble content determined according ISO 16152 (25 °C) in the range of 20.0 to 55.0 wt.-%, wherein the comonomer content of xylene cold soluble fraction of the propylene copolymer is in the range of 14.0 to 30.0 wt.-%, and an intrinsic viscosity of the xylene cold soluble fraction of the propylene copolymer is in the range of equal or more than 1.5 to equal or below 3.0 dl/g, wherein the intrinsic viscosity is determined according to DIN ISO 1628/1 (in Decalin at 135 °C), and (b) styrenic based elastomer(s) having a styrene content in the range of 5 to equal or below 15 wt.-%, wherein further the weight ratio of propylene copolymer and the styrenic based elastomer(s) [ /] is in the range of 9/1 to 3/2. (a) a propylene copolymer having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of more than 2.0 to 15.0 g/10min, a comonomer content in the range of more than 7.5 to 16.5 wt.-%, and a xylene cold soluble content determined according ISO 16152 (25 °C) in the range of 20.0 to 55.0 wt.-%, wherein the comonomer content of xylene cold soluble fraction of the propylene copolymer is in the range of 14.0 to 30.0 wt.-%, and an intrinsic viscosity of the xylene cold soluble fraction of the propylene copolymer is in the range of equal or more than 1.5 to equal or below 3.0 dl/g, wherein the intrinsic viscosity is determined according to DIN ISO 1628/1 (in Decalin at 135 °C), and a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of more than 2.0 to 15.0 g/10min, a comonomer content in the range of more than 7.5 to 16.5 wt.-%, and a xylene cold soluble content determined according ISO 16152 (25 °C) in the range of 20.0 to 55.0 wt.-%, the comonomer content of xylene cold soluble fraction of the propylene copolymer is in the range of 14.0 to 30.0 wt.-%, and an intrinsic viscosity of the xylene cold soluble fraction of the propylene copolymer is in the range of equal or more than 1.5 to equal or below 3.0 dl/g, wherein the intrinsic viscosity is determined according to DIN ISO 1628/1 (in Decalin at 135 °C), (b) styrenic based elastomer(s) having a styrene content in the range of 5 to equal or below 15 wt.-%,
A thermoplastic resin composition comprising: a thermoplastic resin comprising a rubber-modified vinyl graft copolymer and an aromatic vinyl copolymer resin; polyalkylene glycol; and zinc oxide, wherein the zinc oxide has an average particle diameter of ≥ 0.5 μm to ≤ 3 μm measured in a single particle state using a particle analyzer and a BET specific surface area of ≥ 1 m 2 /g to ≤ 10 m 2 /g measured by nitrogen gas absorption method using a BET analyzer a thermoplastic resin comprising a rubber-modified vinyl graft copolymer and an aromatic vinyl copolymer resin; polyalkylene glycol; and zinc oxide, wherein the zinc oxide has an average particle diameter of ≥ 0.5 μm to ≤ 3 μm measured in a single particle state using a particle analyzer and a BET specific surface area of ≥ 1 m 2 /g to ≤ 10 m 2 /g measured by nitrogen gas absorption method using a BET analyzer
A molded foam obtainable by subjecting a polyethylene-based resin to melting and kneading to obtain a foamed resin, and molding the foamed resin by clamping, using split mold blocks (12a, 12b), wherein: the foamed resin contains a first polyethylene-based resin and a second polyethylene-based resin at a mixture ratio of the first polyethylene-based resin to the second polyethylene-based resin = X: Y, where X + Y = 100; a melt flow rate (MFR; determined according to JIS K-7210 at a test temperature at 190 degrees centigrade with a test load of 2.16 kg and expressed in g/10 minutes) of the polyethylene-based resin calculated from the MFR of the first polyethylene-based resin and the MFR of the second polyethylene-based resin at the mixture ratio satisfies Expression 1: A × X / 100 + B × Y / 100 ≤ 1.0 where: A is the MFR of the first polyethylene-based resin, B is the MFR of the second polyethylene-based resin, X is a mixture ratio of the first polyethylene-based resin forming the foamed resin, and Y is a mixture ratio of the second polyethylene-based resin forming the foamed resin; the molded foam has a MFR of less than 0.8; and the first polyethylene-based resin is a high-density polyethylene-based resin and the second polyethylene-based resin is a low-density polyethylene-based resin. the foamed resin contains a first polyethylene-based resin and a second polyethylene-based resin at a mixture ratio of the first polyethylene-based resin to the second polyethylene-based resin = X: Y, where X + Y = 100; a melt flow rate (MFR; determined according to JIS K-7210 at a test temperature at 190 degrees centigrade with a test load of 2.16 kg and expressed in g/10 minutes) of the polyethylene-based resin calculated from the MFR of the first polyethylene-based resin and the MFR of the second polyethylene-based resin at the mixture ratio satisfies Expression 1: A × X / 100 + B × Y / 100 ≤ 1.0 where: A is the MFR of the first polyethylene-based resin, B is the MFR of the second polyethylene-based resin, X is a mixture ratio of the first polyethylene-based resin forming the foamed resin, and Y is a mixture ratio of the second polyethylene-based resin forming the foamed resin; A is the MFR of the first polyethylene-based resin, B is the MFR of the second polyethylene-based resin, X is a mixture ratio of the first polyethylene-based resin forming the foamed resin, and Y is a mixture ratio of the second polyethylene-based resin forming the foamed resin; the molded foam has a MFR of less than 0.8; and the first polyethylene-based resin is a high-density polyethylene-based resin and the second polyethylene-based resin is a low-density polyethylene-based resin.
A method of processing an interference detected by a first microwave sensor, the method comprising the steps of: - receiving, by a second microwave sensor, from the first microwave sensor a message comprising a signal feature profile representing a suspected interference detected by the first microwave sensor in its received signal; - matching, by the second microwave sensor, the signal feature profile comprised in the received message with a stored feature profile, the stored feature profile obtained by the second microwave sensor from its own received signal within a predetermined time period before receiving the signal feature profile, and - determining, by the second microwave sensor, that an interference to the first microwave sensor is caused by the second microwave sensor, if the signal feature profile matches the stored feature profile. - receiving, by a second microwave sensor, from the first microwave sensor a message comprising a signal feature profile representing a suspected interference detected by the first microwave sensor in its received signal; - matching, by the second microwave sensor, the signal feature profile comprised in the received message with a stored feature profile, the stored feature profile obtained by the second microwave sensor from its own received signal within a predetermined time period before receiving the signal feature profile, and - determining, by the second microwave sensor, that an interference to the first microwave sensor is caused by the second microwave sensor, if the signal feature profile matches the stored feature profile.
A method of avoiding interfering signals in an electronic system, said method comprising: determining an output band of interest for a tuner; determining an intermediate frequency band associated with said output band; identifying exclusion zones within said intermediate frequency band associated with corresponding spurs in said output band by analyzing harmonics associated with first and second local oscillators; wherein said analyzing harmonics comprises: identifying a first harmonic of interest; and incrementing the first harmonic of interest for iterative analysis of said harmonics; selecting an intermediate frequency for use in frequency conversion of an input signal to said output band based at least in part on said exclusion zones; and selecting at least one of a first local oscillator frequency and a second local oscillator frequency as a function of said intermediate frequency. determining an output band of interest for a tuner; determining an intermediate frequency band associated with said output band; identifying exclusion zones within said intermediate frequency band associated with corresponding spurs in said output band by analyzing harmonics associated with first and second local oscillators; identifying a first harmonic of interest; and incrementing the first harmonic of interest for iterative analysis of said harmonics;
Filter element, in particular cabin filter for a motor vehicle, with a pleated pack and a plastic frame injected at least partially to the pleated pack, characterized by a plastic foam sealing foamed at least partially to the plastic frame.
A peristaltic pump for medical tests, comprising a casing that houses drive means for acting on a rotor provided with a head that supports a plurality of pressure rollers distributed radially around the rotor, said pressure rollers being intended to make contact with pressure with a flexible tube for the passage of a fluid, the casing having a housing configured for accommodating the flexible tube, the casing including release means for releasing the flexible tube, these release means having an arrangement such that in a closed condition of the release means, such release means are configured to keep the flexible tube in the housing in an immovable manner and the pressure rollers in contact under pressure with the flexible tube, the release means comprising a locking element articulated at an articulation point present in the casing, having a configuration that runs along the housing for the flexible tube and adapted in shape to the head of the rotor, the locking element including clamping means configured for clamping the flexible tube, and including pressure detection means configured for detecting the pressure value of the fluid to run along the flexible tube, the detection means being located in the casing, characterised in that the clamping means comprise at least one section provided on the inner face thereof with a toothed region configured for coming into contact with the flexible tube when it is mounted in the housing present in the casing, the detection means consist of a pressure sensor located at a point along the housing for the flexible tube, and the locking element has a projection protruding from the inside thereof, being located such that in a closed condition of the locking element, the projection is axially aligned with the pressure sensor, the projection protruding from a curved region, such that in a closed condition of the locking element two curved regions are defined configured for not coming into contact with the flexible tube to be placed.
A polysaccharide/double-stranded RNA complex, which is a complex of double-stranded RNA and polysaccharide having a β-1,3-glucan skeleton, wherein the double-stranded RNA has a sense strand RNA consisting of a base sequence complementary to a target sequence in a target gene and an antisense strand RNA containing a base sequence complementary to the sense strand RNA, and the double-stranded RNA can inhibit expression of the target gene; the double-stranded RNA has a single-stranded polydeoxyadenine bound directly to the end of at least one of the sense strand RNA and the antisense strand; and the polysaccharide and the single-stranded polydeoxyadenine form a complex.
A drill bit assembly for fluid-operated percussion drill tools comprising: a drive ring; a percussion bit having a head portion and a bit retaining portion; engagement means on the head portion engageable with complementary engagement means on the drive ring whereby rotational drive from the drive ring is transmittable to the percussion bit; bit retaining means adapted for engagement with the bit retaining portion of the percussion bit to retain the percussion bit in the drill bit assembly; and connection means on the drive ring adapted for connecting the drive ring to a drive means of the fluid-operated percussion drill tool; wherein the drive ring comprises a plurality of separable part-annular drive dog segments, wherein the bit retaining means are provided on at least two of the drive dog segments, and characterised in that each drive dog segment receives a bolt for individually connecting the drive dog segment to the drive means of the fluid-operated percussion drill tool. a drive ring; a percussion bit having a head portion and a bit retaining portion; engagement means on the head portion engageable with complementary engagement means on the drive ring whereby rotational drive from the drive ring is transmittable to the percussion bit; bit retaining means adapted for engagement with the bit retaining portion of the percussion bit to retain the percussion bit in the drill bit assembly; and connection means on the drive ring adapted for connecting the drive ring to a drive means of the fluid-operated percussion drill tool; wherein the drive ring comprises a plurality of separable part-annular drive dog segments, wherein the bit retaining means are provided on at least two of the drive dog segments, and characterised in that each drive dog segment receives a bolt for individually connecting the drive dog segment to the drive means of the fluid-operated percussion drill tool.
A valve for field sensitive liquids having a valve duct (6, 106, 205, 305, 405, 505, 605, 705, 805, 905, 1106a, 1106b, 1106a, 1106b, 1106c) and at least one coupling element (10, 112, 210, 310, 410, 510, 1010, 1110) for coupling a control field into the valve duct (6, 106, 205, 305, 405, 505, 605, 705, 805, 1106a, 1106b, 1106a, 1106b, 1106c) in order to change the viscosity of the liquid flowing in the valve duct in a controlling manner, characterised in that - the valve (1, 101, 201, 301, 401, 501, 601, 701, 801, 1001, 1101) has a control body (7, 109, 207, 306, 406, 506, 606, 706, 806, 1007, 1107) that is movable against the force of a restoring element (8, 110, 209, 308, 408, 508, 1008, 1108) in order to change the flow cross-section, said control body (7, 109, 207, 306, 406, 506, 606, 706, 806, 1007, 1107) being movable under the effect of the field sensitive liquid that is affected by the control field in its viscosity, wherein the movement of the control body (7, 109, 207, 306, 406, 506, 606, 1007, 1107) is achieved by the static pressure of the field sensitive liquid affected in its viscosity. - the valve (1, 101, 201, 301, 401, 501, 601, 701, 801, 1001, 1101) has a control body (7, 109, 207, 306, 406, 506, 606, 706, 806, 1007, 1107) that is movable against the force of a restoring element (8, 110, 209, 308, 408, 508, 1008, 1108) in order to change the flow cross-section, said control body (7, 109, 207, 306, 406, 506, 606, 706, 806, 1007, 1107) being movable under the effect of the field sensitive liquid that is affected by the control field in its viscosity, wherein the movement of the control body (7, 109, 207, 306, 406, 506, 606, 1007, 1107) is achieved by the static pressure of the field sensitive liquid affected in its viscosity.
A HVPE method in which a substrate crystal is arranged in a mixed gas and an AlGaN crystal is grown on the substrate crystal, which is accommodated in a growth portion being formed by a quartz reaction chamber, an aluminum material, a gallium material, a nitrogen material, and a carrier gas being mixed in the mixed gas, the AlGaN crystal vapor phase growth method characterized in that the carrier gas comprises hydrogen and the hydrogen partial pressure in the carrier gas is set to more than 0 Pa (0 atm) and lower than 10132.5 Pa (0.1 atm), and that the method comprises generating AlCl 3 as the aluminum material in an aluminum material supply portion by reacting HCl with metallic Al while keeping the aluminum material supply portion at a temperature of 750°C or less or by sublimating AlCl 3 powder, and transporting the aluminum material to a mixing portion along with the carrier gas, generating GaCl as the gallium material in a gallium material supply portion by reacting HCl with metallic Ga, and transporting the gallium material to the mixing portion along with the carrier gas, providing a nitrogen material in a nitrogen material supply portion, and transporting the nitrogen material to the mixing portion along with the carrier gas, mixing the source gases supplied from the aluminum material supply portion, the gallium supply portion and the nitrogen supply portion in the mixing portion which is kept within a temperature range of 160°C or more to 750°C or less, and growing the AlGaN crystal in the growth portion by keeping the substrate crystal at a predetermined set temperature in a temperature range of 900°C to 1600°C, wherein the temperature of the substrate crystal is set without substantially raising the temperature of the quartz of the quartz reaction chamber and the ambient gas.
A method of managing intercell interference in a wireless network comprising a serving cell, one or more neighbor cells and a user equipment served by the serving cell, the user equipment operating in CELL_FACH state during the detecting and transmitting in said method, said method further comprising: receiving a neighbor cell identification set indicating the one or more neighbor cells; receiving a relative grant channel resource index corresponding to a shared relative grant channel of the one or more neighbor cells; detecting intercell interference associated with the user equipment in the one or more neighbor cells; transmitting a non-serving relative grant message to the user equipment on the relative grant channel in response to detecting the intercell interference associated with the user equipment. receiving a neighbor cell identification set indicating the one or more neighbor cells; receiving a relative grant channel resource index corresponding to a shared relative grant channel of the one or more neighbor cells; detecting intercell interference associated with the user equipment in the one or more neighbor cells; transmitting a non-serving relative grant message to the user equipment on the relative grant channel in response to detecting the intercell interference associated with the user equipment.
A polarization state detector comprising: an analyzer configured to receive an optical signal including a transmission data signal and a monitor signal for detecting a transmission polarization state of an optical transmitter from the optical transmitter, the monitor signal being modulated with a Stokes-vector-modulation and being controlled at the optical transmitter to be rotated around an intersection of the two orthogonal polarization components of the transmission data by mutually-different angles and at different times with respect to the transmission data, and to analyze a reception signal quality of the monitor signal for each of the different rotation angles of the monitor signal; a detector configured to detect, based on the analyzed result of the analyzer, an axis of a polarization component of the transmission data signal corresponding to a rotation angle among each of the rotation angles of the monitor signal, the corresponding rotation angle indicating a relatively higher reception signal quality due to the mitigation of polarization dependent loss; and a notifer configured to notify the detected result of the detector to the optical transmitter, wherein the Stokes-vector-modulation is processed based on a Stokes vector which is determined by a phase difference and an amplitude ratio of two orthogonal polarization. an analyzer configured to receive an optical signal including a transmission data signal and a monitor signal for detecting a transmission polarization state of an optical transmitter from the optical transmitter, the monitor signal being modulated with a Stokes-vector-modulation and being controlled at the optical transmitter to be rotated around an intersection of the two orthogonal polarization components of the transmission data by mutually-different angles and at different times with respect to the transmission data, and to analyze a reception signal quality of the monitor signal for each of the different rotation angles of the monitor signal; a detector configured to detect, based on the analyzed result of the analyzer, an axis of a polarization component of the transmission data signal corresponding to a rotation angle among each of the rotation angles of the monitor signal, the corresponding rotation angle indicating a relatively higher reception signal quality due to the mitigation of polarization dependent loss; and a notifer configured to notify the detected result of the detector to the optical transmitter, wherein the Stokes-vector-modulation is processed based on a Stokes vector which is determined by a phase difference and an amplitude ratio of two orthogonal polarization.
A centrifugal compressor, comprising: a shaft; a lubricant sump, the lubricant sump covering an end of the shaft; and a bearing configured to support the shaft, the bearing having a bearing access; characterized in that the centrifugal compressor further comprises: a shroud, located within the lubricant sump and covering the end of the shaft, the shroud having an aperture, the aperture allowing a lubricant inlet to extend out of the shroud, such that the lubricant inlet can take in lubricant from the lubricant sump, wherein the lubricant inlet is positioned on an axis of the shaft; wherein the shaft has a first opening at the end of the shaft in fluid communication with the lubricant inlet and a second opening in fluid communication with the bearing access; and the first opening and the second openings are in fluid communication with a lubricant delivery channel. a shaft; a lubricant sump, the lubricant sump covering an end of the shaft; and a bearing configured to support the shaft, the bearing having a bearing access; characterized in that the centrifugal compressor further comprises: a shroud, located within the lubricant sump and covering the end of the shaft, the shroud having an aperture, the aperture allowing a lubricant inlet to extend out of the shroud, such that the lubricant inlet can take in lubricant from the lubricant sump, wherein the lubricant inlet is positioned on an axis of the shaft; wherein the shaft has a first opening at the end of the shaft in fluid communication with the lubricant inlet and a second opening in fluid communication with the bearing access; and the first opening and the second openings are in fluid communication with a lubricant delivery channel. a shroud, located within the lubricant sump and covering the end of the shaft, the shroud having an aperture, the aperture allowing a lubricant inlet to extend out of the shroud, such that the lubricant inlet can take in lubricant from the lubricant sump, wherein the lubricant inlet is positioned on an axis of the shaft; wherein the shaft has a first opening at the end of the shaft in fluid communication with the lubricant inlet and a second opening in fluid communication with the bearing access; and the first opening and the second openings are in fluid communication with a lubricant delivery channel.
Method for producing ethylene, wherein a reaction feed containing ethane and oxygen is formed and a portion of the ethane and of the oxygen in the reaction feed is reacted by oxidative dehydrogenation to ethylene and acetic acid by yielding a process gas, wherein the process gas contains the unreacted portion of the ethane and of the oxygen, the ethylene and the acetic acid and water and wherein the process gas is subjected to a water wash, characterized in that the water wash comprises feeding the process gas into a washing column (10, 20, 30, 40, 50) into which aqueous, liquid detergent streams are fed in at least two different column parts and are sent towards the process gas.