mhurhangee/ep-ind-claims huggingface dataset:
A semi-aromatic polyamide fiber comprising a semi-aromatic polyamide having a melting point of 280°C or less, wherein the semi-aromatic polyamide fiber satisfies all of the following conditions to: in the semi-aromatic polyamide, a dicarboxylic acid component is an aromatic dicarboxylic acid, and 40 mol% to 80 mol% of a diamine component is 2-methyl-1,8-octanediamine; the semi-aromatic polyamide comprises 50 ppm to 500 ppm of a copper compound in terms of copper, wherein the copper compound is one or more compounds selected from the group consisting of copper chloride, copper bromide, copper iodide, copper chloride, copper bromide, copper iodide, copper phosphate, copper pyrophosphate, copper sulfide, and copper nitrate; and organic copper compounds such as copper salts of organic carboxylic acids such as copper acetate; and copper acetylacetonate; and the semi-aromatic polyamide fiber has a peak temperature of a glass transition point from 120°C to 140°C, wherein the glass transition point and the melting point of a fiber were measured by raising the temperature to 400°C at a temperature rising rate of 10°C/min under a nitrogen atmosphere using a "TA3000-DSC" manufactured by Mettler Corporation, determining the glass-transition temperature from the inflection points observed on the DSC chart, and determining the exothermic peak temperature as the melting point. in the semi-aromatic polyamide, a dicarboxylic acid component is an aromatic dicarboxylic acid, and 40 mol% to 80 mol% of a diamine component is 2-methyl-1,8-octanediamine; the semi-aromatic polyamide comprises 50 ppm to 500 ppm of a copper compound in terms of copper, wherein the copper compound is one or more compounds selected from the group consisting of copper chloride, copper bromide, copper iodide, copper chloride, copper bromide, copper iodide, copper phosphate, copper pyrophosphate, copper sulfide, and copper nitrate; and organic copper compounds such as copper salts of organic carboxylic acids such as copper acetate; and copper acetylacetonate; and the semi-aromatic polyamide fiber has a peak temperature of a glass transition point from 120°C to 140°C,
A method of manufacturing at least one tire member, destined to be embedded in a tire or joined with its surface, the member comprising at least one rubber-coated electronic component, characterized in that the component is brought into contact with a first strip of rubber and is covered by a second strip of rubber so as to coat the component, and in that the two strips (32, 34) move substantially at the same speed from a first zone in which the two strips are separated toward a second zone in which two respective faces (42,44) of the two strips (32,34) are in contact with each other.
A method for generating a signature for an end user device, the end user device comprising at least a video display adapter supporting readback from a frame buffer, video display software, and a secure application, the method comprising: creating a certain video shape by said secure application issuing drawing commands; operating on said video shape by the video display adapter and the video display software by processing the commands to form a display picture comprising pixel values, thereby altering said video shape according to a characteristic of at least one of the video display adapter and the video display software; reading back said pixel values from the frame buffer; and forming a signature at the end user device based on said pixel values. creating a certain video shape by said secure application issuing drawing commands; operating on said video shape by the video display adapter and the video display software by processing the commands to form a display picture comprising pixel values, thereby altering said video shape according to a characteristic of at least one of the video display adapter and the video display software; reading back said pixel values from the frame buffer; and forming a signature at the end user device based on said pixel values.
A PCR tube (40, 140, 240) comprising: a tube body that has an opening at one end and has a collar part (46, 146) around the opening; and a lid part (44, 144, 244) that is made of light transmissive material, is attachably and detachably mounted on the tube body and seals the opening of the tube body, wherein an RFID tag (48, 248) having a passive antenna (62, 362) built therein is provided at the lid part (44, 144, 244), and wherein the antenna (62, 362) has directivity in a direction opposite to a bottom face of the tube body, characterized in that in the upper side of the lid part an upwardly directed recess is formed with an opening facing upwardly, a structural body made of a light-transmissive material being attached in said recess in a fitting manner, and wherein the RFID tag (48, 248) is disposed attachably and detachably within the structural body on the opening side of the recess and facing upwardly. a tube body that has an opening at one end and has a collar part (46, 146) around the opening; and a lid part (44, 144, 244) that is made of light transmissive material, is attachably and detachably mounted on the tube body and seals the opening of the tube body, wherein an RFID tag (48, 248) having a passive antenna (62, 362) built therein is provided at the lid part (44, 144, 244), and wherein the antenna (62, 362) has directivity in a direction opposite to a bottom face of the tube body, characterized in that in the upper side of the lid part an upwardly directed recess is formed with an opening facing upwardly, a structural body made of a light-transmissive material being attached in said recess in a fitting manner, and wherein the RFID tag (48, 248) is disposed attachably and detachably within the structural body on the opening side of the recess and facing upwardly.
A method of wireless communication performed by a user equipment, UE, the method comprising: receiving an uplink resource allocation that is associated with a two-symbol transmission time interval, TTI, the uplink resource allocation comprising an indication of a number of symbol periods between a symbol with a demodulation reference signal, DM-RS and a subsequent two-symbol TTI scheduled for data; determining that a demodulation reference signal, DM-RS, is scheduled to be transmitted in one symbol of the two-symbol TTI as part of the uplink resource allocation; and transmitting the DM-RS in the one symbol of the two-symbol TTI and data in the subsequent two-symbol TTI according to the uplink resource allocation. receiving an uplink resource allocation that is associated with a two-symbol transmission time interval, TTI, the uplink resource allocation comprising an indication of a number of symbol periods between a symbol with a demodulation reference signal, DM-RS and a subsequent two-symbol TTI scheduled for data; determining that a demodulation reference signal, DM-RS, is scheduled to be transmitted in one symbol of the two-symbol TTI as part of the uplink resource allocation; and transmitting the DM-RS in the one symbol of the two-symbol TTI and data in the subsequent two-symbol TTI according to the uplink resource allocation.
Pneumatic controller comprising a double-acting working cylinder, the two chambers (3, 4) of which can each be connected in opposite directions to a compressed air source and a compressed air outlet via a controllable supply device having two operating positions, and an automatically resetting 3/2-way valve (13, 13') which can be switched by means of a control pressure is arranged upstream of each chamber in a connecting line (5, 6) to the supply device, which valves connect the chambers to venting outlets in a first switching position and to the supply device in a second switching position, and a parallel connection consisting of a check valve (21, 21') and a throttle point (22, 22') is arranged upstream of each chamber, the check valves of which block in the return flow direction, characterized in that the two 3/2-way valves (13, 13') assume the first switching position in the rest position and can be switched via a common control line which is connected downstream of the 3/2-way valves (13, 13') in the direction of the supply device, via a shuttle valve, to the two connecting lines (5, 6) to the supply device, and the parallel connections in the connecting lines (5, 6) are each arranged downstream of the 3/2-way valves (13, 13') in the direction of the supply device.
A release sheet suitable for being laminated with a pressure sensitive adhesive layer configured of a silicone-based pressure sensitive adhesive, wherein the release sheet is suitable for being released from the pressure sensitive adhesive layer when released, wherein the release sheet comprises: a paper base; a pigment coat layer formed on one side of the paper base; a first polyolefin layer formed on a side of the pigment coat layer opposite to the paper base; and a second polyolefin layer formed on the other side of the paper base, wherein a surface of the first polyolefin layer opposite to the pigment coat layer undergoes a highly smoothing process, such that a root-mean-square gradient of roughness curve at the surface of the first polyolefin layer opposite to the pigment coat layer is 0.014 μm or less, wherein the root-mean-square gradient of roughness curve is measured with a reference length of 2.5 mm from a roughness curve of a cutoff value of 2.5 mm in accordance with ISO 4287: 1997 using a surface roughness tester, and wherein the surface is suitable for being laminated directly on to the pressure sensitive adhesive layer. a paper base; a pigment coat layer formed on one side of the paper base; a first polyolefin layer formed on a side of the pigment coat layer opposite to the paper base; and a second polyolefin layer formed on the other side of the paper base, wherein a surface of the first polyolefin layer opposite to the pigment coat layer undergoes a highly smoothing process, such that a root-mean-square gradient of roughness curve at the surface of the first polyolefin layer opposite to the pigment coat layer is 0.014 μm or less, wherein the root-mean-square gradient of roughness curve is measured with a reference length of 2.5 mm from a roughness curve of a cutoff value of 2.5 mm in accordance with ISO 4287: 1997 using a surface roughness tester,
A non-continuous pelvic implant comprising first and second separate implant pieces (2, 20, 40, 100, 102) configured for placement in a patient to treat fecal incontinence, each implant piece (2, 20, 40, 100, 102) comprising an anterior end (12, 22, 44, 106) and a posterior end (12, 22, 42, 110), the first implant piece (2, 20, 40, 100, 102) being configured to extend between a right posterior location on a right side of the patient at a region of a rectum or external anal sphincter to a right anterior location on the right side of the patient at a region of a right obturator foramen with the posterior end (12, 22, 42, 110) located at the right posterior location and the anterior end (12, 22, 44, 106) located at the right anterior location, the second implant piece (2, 20, 40, 100, 102) being configured to extend between a left posterior location on a left side of the patient at a region of a rectum or external anal sphincter to a left anterior location on the left side of the patient at a region of a left obturator foramen with the posterior end (12, 22, 42, 110) located at the left posterior location and the anterior end (12, 22, 44, 106) located at the left anterior location, wherein each implant piece (2, 20, 40, 100, 102) comprises a frame (9, 21, 41, 101).
A Hall effect ion ejection device having a longitudinal axis (OO') substantially parallel to an ion ejection direction and including at least: - one main ionization and acceleration annular channel, the annular channel being open at its end, - one anode extending inside the channel, - one cathode extending outside the channel, at the outlet of the latter, - one magnetic circuit for generating a magnetic field in a portion of the annular channel, said magnetic circuit comprising at least one annular inner wall, one annular outer wall and a bottom connecting the inner and outer walls, - an annular permanent central magnet, integral with the inner wall of the magnetic circuit and an annular permanent peripheral magnet integral with the outer wall of the magnetic circuit and for which the magnetization direction is opposite to that of the central magnet, so as to generate at the outlet of the annular channel a magnetic field independent of azimuth and in the area of the anode, a magnetic field for which the radial component is zero, wherein the magnetic circuit is obtained in soft ferrites, the central magnet and the peripheral magnet being obtained in hard ferrites, so-called hexaferrites, and wherein the annular channel is made of the inner and outer walls of the magnetic circuit. - one main ionization and acceleration annular channel, the annular channel being open at its end, - one anode extending inside the channel, - one cathode extending outside the channel, at the outlet of the latter, - one magnetic circuit for generating a magnetic field in a portion of the annular channel, said magnetic circuit comprising at least one annular inner wall, one annular outer wall and a bottom connecting the inner and outer walls, - an annular permanent central magnet, integral with the inner wall of the magnetic circuit and an annular permanent peripheral magnet integral with the outer wall of the magnetic circuit and for which the magnetization direction is opposite to that of the central magnet, so as to generate at the outlet of the annular channel a magnetic field independent of azimuth and in the area of the anode, a magnetic field for which the radial component is zero,
A milling attachment for a work machine, comprising: a frame including first and second frame side walls (44,46) and a frame top, the frame side walls and frame top at least partially defining a milling drum housing, the frame top including a movable front cover portion configured to engage a ground surface; a milling drum rotatably mounted between the first and second frame side walls; a first adjustable side plate mounted on the first frame side wall and having a first ground engaging portion for engaging the ground surface, the first adjustable side plate being vertically adjustable relative to the first frame side wall to adjust a height of the first frame side wall and the milling drum relative to the ground surface; a first actuator operably associated with the first adjustable side plate for raising and lowering the first adjustable side plate relative to the first frame side wall; and a first actuator extension connecting the first actuator to the movable front cover portion, the first actuator extension being configured such that the movable front cover portion is moved relative to the frame when the first adjustable side plate is raised or lowered relative to the frame. a frame including first and second frame side walls (44,46) and a frame top, the frame side walls and frame top at least partially defining a milling drum housing, the frame top including a movable front cover portion configured to engage a ground surface; a milling drum rotatably mounted between the first and second frame side walls; a first adjustable side plate mounted on the first frame side wall and having a first ground engaging portion for engaging the ground surface, the first adjustable side plate being vertically adjustable relative to the first frame side wall to adjust a height of the first frame side wall and the milling drum relative to the ground surface; a first actuator operably associated with the first adjustable side plate for raising and lowering the first adjustable side plate relative to the first frame side wall; and a first actuator extension connecting the first actuator to the movable front cover portion, the first actuator extension being configured such that the movable front cover portion is moved relative to the frame when the first adjustable side plate is raised or lowered relative to the frame.
A flooring material system for absorbing impact, the flooring material system comprising: foundation materials arranged to be used, each of the foundation materials including a top portion layer and a lower portion layer each having a surface substantially parallel to a ground, and a plurality of leg portions with an impact buffer capability, a bottom portion of the top portion layer and a top portion of the leg portion and also a top portion of the lower portion layer and a bottom portion of the leg portion being fixed to each other; and a distribution material (20, 21, 201, 202, 203, 204) installed on the foundation material and arranged to distribute force applied to the foundation material, characterized in that each of the leg portions includes a groove on one side thereof such that when a certain force or more is applied thereto in a vertical direction the leg portion buckles such that a side on an opposite side to the groove of the leg portion projects. foundation materials arranged to be used, each of the foundation materials including a top portion layer and a lower portion layer each having a surface substantially parallel to a ground, and a plurality of leg portions with an impact buffer capability, a bottom portion of the top portion layer and a top portion of the leg portion and also a top portion of the lower portion layer and a bottom portion of the leg portion being fixed to each other; and a distribution material (20, 21, 201, 202, 203, 204) installed on the foundation material and arranged to distribute force applied to the foundation material, characterized in that each of the leg portions includes a groove on one side thereof such that when a certain force or more is applied thereto in a vertical direction the leg portion buckles such that a side on an opposite side to the groove of the leg portion projects.
A method for facilitating milling a window in a cased wellbore (22, 24), the method comprising: determining a configuration of a cutting structure (58, 100) of a lead mill (31, 32) to cut a window in a well casing (26, 120), the cutting structure (58, 100) of the lead mill (31, 32) having a plurality of cutting elements; and selecting a whipstock having a plurality of ramp sections, each ramp section (40, 42, 44, 46, 48, 50, 52) of the plurality of ramp sections having a length and angular orientation designed to cooperate with the configuration of the cutting structure (58, 100) of the lead mill (31, 32) to produce a predetermined balancing of cutting load between the plurality of cutting elements during cutting of the window in the well casing (26, 120), the predetermined balancing of cutting load being achieved when the absolute difference in calculated well casing (26, 120) volume removed by radially adjacent cutting elements in a casing cutting section of the cutting structure (58, 100) is less than about 35 percent. determining a configuration of a cutting structure (58, 100) of a lead mill (31, 32) to cut a window in a well casing (26, 120), the cutting structure (58, 100) of the lead mill (31, 32) having a plurality of cutting elements; and selecting a whipstock having a plurality of ramp sections, each ramp section (40, 42, 44, 46, 48, 50, 52) of the plurality of ramp sections having a length and angular orientation designed to cooperate with the configuration of the cutting structure (58, 100) of the lead mill (31, 32) to produce a predetermined balancing of cutting load between the plurality of cutting elements during cutting of the window in the well casing (26, 120), the predetermined balancing of cutting load being achieved when the absolute difference in calculated well casing (26, 120) volume removed by radially adjacent cutting elements in a casing cutting section of the cutting structure (58, 100) is less than about 35 percent.
A composite powder for use in the negative electrode of a battery, whereby the composite powder comprises composite particles, whereby the composite particles comprise a matrix material and silicon, whereby the composite particles have a volumetric particle size distribution having a d10 and a d90, characterised in that, over at least part of the size range from d10 to d90, the composite particles have a size-dependent silicon content, with a positive correlation between the particle size and the silicon content, whereby a fine fraction of the composite powder has an average particle size D1 and a silicon content S1, whereby a coarse fraction of the composite powder has an average particle size D2 and a silicon content S2, whereby a size dependence factor F is defined as F=(S2-S1)/(D2-D1), whereby the value of the size dependence factor F is at least 0.04 wt% silicon/μm, whereby S1 and S2 are measured by means of X-Ray fluorescence, whereby D1 is defined as the d50-value of the volumetric particle size distribution of the fine fraction as measured by laser diffraction and whereby D2 is defined as the d50-value of the volumetric particle size distribution of the coarse fraction as measured by laser diffraction.
A power tool comprising: a rotatable arbor (42; 129; 242); a blade mounted on the arbor (42; 129; 242); a motor (16; 130; 218) to spin the arbor (42; 129; 242) and blade; a detection system to detect when a person contacts the spinning blade; a reaction system triggerable to perform an action to mitigate injury upon detection of the contact; and a conductive coupling connecting the detection system and the blade, where the conductive coupling includes a brush (140; 178; 186; 192), where the brush (140; 178; 186; 192) establishes an electrical connection with a moving part of the power tool, and where the brush maintains contact with the moving part of the power tool during at least 40 hours of cumulative time when the motor is spinning the arbor and blade without an interruption in the electrical connection sufficient to trigger the reaction system, characterised in that the moving part of the power tool is the arbor (42; 129; 242) and the brush (140; 178; 186; 192) establishes an electrical connection through axial contact with the arbor (42; 129; 242) by contacting a compliant component associated with the arbor (42; 129; 242), wherein the compliant component is a conductive packing. a rotatable arbor (42; 129; 242); a blade mounted on the arbor (42; 129; 242); a motor (16; 130; 218) to spin the arbor (42; 129; 242) and blade; a detection system to detect when a person contacts the spinning blade; a reaction system triggerable to perform an action to mitigate injury upon detection of the contact; and a conductive coupling connecting the detection system and the blade, where the conductive coupling includes a brush (140; 178; 186; 192), where the brush (140; 178; 186; 192) establishes an electrical connection with a moving part of the power tool, and where the brush maintains contact with the moving part of the power tool during at least 40 hours of cumulative time when the motor is spinning the arbor and blade without an interruption in the electrical connection sufficient to trigger the reaction system, characterised in that the moving part of the power tool is the arbor (42; 129; 242) and the brush (140; 178; 186; 192) establishes an electrical connection through axial contact with the arbor (42; 129; 242) by contacting a compliant component associated with the arbor (42; 129; 242), wherein the compliant component is a conductive packing.