mhurhangee/ep-ind-claims huggingface dataset:
A hydroentangled composite comprising: at least two nonwoven webs comprising a first nonwoven web and a second nonwoven web, wherein at least one of the first nonwoven web and the second nonwoven web comprises a spunbond, and a three-dimensional pattern, wherein a weighted linting level ratio between the second nonwoven web and the first nonwoven web prior to being hydroentangled together comprises a value less than 0.9, and wherein WLL is defined as follows - WLL = L * BWt; wherein (i) 'L' is the linting result for a given nonwoven web, and (ii) "BWt" is the basis weight of the given nonwoven web as determined by ASTM D3776; and wherein the hydroentangled composite comprises (i) a strength factor from 1.35 N/gsm to 1.75 N/gsm and (ii) a lint level from 2.8 gsm to 5 gsm as determined by WSP 400.0, modified as in the description wherein the term strength factor is the sum of the strip tensile strengths of a web or composite in the machine and the cross section divided by the basis weight of the web or composite, wherein the SF is calculated according to the formula SF= (S1+S2)/BW, and wherein the strip tensile strength is measured according to ASTM D5035. at least two nonwoven webs comprising a first nonwoven web and a second nonwoven web, wherein at least one of the first nonwoven web and the second nonwoven web comprises a spunbond, and a three-dimensional pattern, wherein a weighted linting level ratio between the second nonwoven web and the first nonwoven web prior to being hydroentangled together comprises a value less than 0.9, and wherein WLL is defined as follows - WLL = L * BWt; wherein (i) 'L' is the linting result for a given nonwoven web, and (ii) "BWt" is the basis weight of the given nonwoven web as determined by ASTM D3776; and wherein the hydroentangled composite comprises (i) a strength factor from 1.35 N/gsm to 1.75 N/gsm and (ii) a lint level from 2.8 gsm to 5 gsm as determined by WSP 400.0, modified as in the description wherein the term strength factor is the sum of the strip tensile strengths of a web or composite in the machine and the cross section divided by the basis weight of the web or composite, wherein the SF is calculated according to the formula SF= (S1+S2)/BW, and wherein the strip tensile strength is measured according to ASTM D5035.
A mounting ring comprising: a plate having a proximal side, a distal side adapted to be placed against an exterior surface of a heart, an opening extending through the plate from the proximal side to the distal side, and a plurality of passageways; an annular wall adapted to be positioned at least partially within the opening and attached to the plate; characterised by a plurality of anchors (61, 173, 181), each of which are pivotably connected to the plate to rotate about an axis tangent to a circle encircling the opening.
Gas compression spring (10, 10', 10'') with a cylindrical housing, which comprises a wall, a bottom part and a cover part having an opening as well as a longitudinal axis, and with a piston which has an outer surface and an end face and is displaceable in the housing along the longitudinal axis, wherein a gas compression chamber is formed between the piston and the housing and wherein the gas compression spring (10, 10', 10'') has at least one sensor for detection of at least one physical variable, characterised in that the gas pressure spring (10, 10', 10") has means (70, 80, 90) for generating at least a part of the electrical power necessary for supplying current to the at least one sensor.
Clamping unit for tool machines which are equipped with a heavy-duty chuck for mounting a workpiece and the clamping jaws of which can be actuated by means of the clamping unit via a movement converter and an axially adjustable draw rod, wherein the clamping unit has a reversible electric drive motor which is connectable to the movement converter to trigger clamping movements, characterised in that to the drive motor is assigned a switching element which is adjustable axially in controlled manner in central position or the one or the other end position and can be driven by the latter directly or via intermediate elements, in that to release and/or clamp the heavy-duty chuck, the switching element is connectable positively or non-positively in the one end position to components of the heavy-duty chuck, and in the other end position to an axially displaceable adjusting element which can be coupled to an auxiliary device of the tool machine, and in that for bearing-orientated rotation of the heavy-duty chuck, the switching element is connectable to be resistant to rotation in the central position to the drive motor via components of the clamping unit and in that the switching element is lockable to be releasable in one or both end positions with the machine spindle of the tool machine.
A method for determining an operating state of a machine, the method comprising: measuring, with a mobile device (101, 301, 401), a signal of the machine; identifying, by the mobile device (101, 301, 401), a type of the machine; selecting, by the mobile device (101, 301, 401), an adapted machine-learned classifier from a plurality of machine-learned classifiers stored local to the mobile device (101, 301, 401), based on the type of the machine; applying, by a processor of the mobile device (101, 301, 401), the measured signal to the adapted machine-learned classifier learned on a plurality of machine signals and associated operating states; generating, by the processor of the mobile device (101, 301, 401), the operating state of the machine based on the application of the measured signal to the adapted machine-learned classifier without a connection to a remote computer; outputting, by the mobile device (101, 301, 401), the operating state of the machine; sending, by the processor of the mobile device (101, 301, 401), the measured signal and operating state of the machine to the remote computer; and receiving, by the processor of the mobile device (101, 301, 401), an updated machine-learned classifier trained in the remote computer on the measured signal and operating state of the machine, wherein the processor of the mobile device (101, 301, 401) performs the applying and generating in real time. measuring, with a mobile device (101, 301, 401), a signal of the machine; identifying, by the mobile device (101, 301, 401), a type of the machine; selecting, by the mobile device (101, 301, 401), an adapted machine-learned classifier from a plurality of machine-learned classifiers stored local to the mobile device (101, 301, 401), based on the type of the machine; applying, by a processor of the mobile device (101, 301, 401), the measured signal to the adapted machine-learned classifier learned on a plurality of machine signals and associated operating states; generating, by the processor of the mobile device (101, 301, 401), the operating state of the machine based on the application of the measured signal to the adapted machine-learned classifier without a connection to a remote computer; outputting, by the mobile device (101, 301, 401), the operating state of the machine; sending, by the processor of the mobile device (101, 301, 401), the measured signal and operating state of the machine to the remote computer; and receiving, by the processor of the mobile device (101, 301, 401), an updated machine-learned classifier trained in the remote computer on the measured signal and operating state of the machine, wherein the processor of the mobile device (101, 301, 401) performs the applying and generating in real time.
A brazed plate heat exchanger comprising a heat exchange plate pack with plates having an area larger than 0.20 m 2 and a porthole area of at least 0.003 m 2, the plates in the plate pack being of stainless steel and characterised in that the plates are brazed together with an iron based brazing filler material comprising at least 40 wt% Fe, 14-21 wt% Cr, 5-21 wt% Ni, 6-15 wt% Si, and 0.2-1.5 wt% B or the iron-based brazing filler material comprising at least 40 wt% Fe, 14-21 wt% Cr, 5-21 wt% Ni, 4-9 wt% Si, and 4-9 wt% P; wherein joints, pores, cracks, gaps or crevices in the plate pack are filled and sealed by the brazing material, and the brazed plate heat exchanger has a burst pressure of more than 65 Bar, and the brazed areas have an average hardness less than 600 HV1, and wherein the brazed areas have a silicon content of at least 2 wt% Si.
An air conduit securing element for detachably fastening a tubular and corrugated air conduit on a connecting branch of a ventilation housing, wherein the air conduit securing element has a base body that in a cross section has an annular shape and can encompass and rest on the connecting branch in a state, in which it is mounted on the connecting branch, wherein at least one fixing element is integrally formed on the base body and extends inward starting from the base body, which fixing element can in the mounted state be arranged such that it lies at least in a through-opening formed in the connecting branch and is supported on a fixing section of an edge of the through-opening, wherein at least one catch element is integrally formed on the base body and extends inward starting from the base body in an engaged position, in which the at least one catch element can engage into a corrugation trough of the air conduit, which catch element can in the mounted state extend into the connecting branch through the through-opening, and wherein the at least one catch element is supported on the base body by means of a pivot pin such that it is pivotable from the engaged position in an axial direction referred to the base body.
A computer-implemented method of producing a program to operate a multihead composite material application machine to produce a composite part, comprising: receiving a plurality of path definitions assigned to a plurality of composite material application heads associated with a tool carriage on the multihead composite material application machine, the plurality of path definitions including a first path definition assigned to a first composite material application head of the plurality of composite material application heads on the multihead composite material application machine; determining a median pathway relative to the plurality of path definitions; defining a constellation configuration, which is a configuration of the composite material application heads of the tool carriage, based upon the median pathway; assigning the first composite material application head to a first constellation position in response to determining the constellation configuration; computing a plurality of first machine axis position solutions based at least in part on the first path definition to control the first composite material application head; adding a profile to start a composite material feed mechanism and accelerate the composite material feed rate to match the velocity of the surface of the composite part relative to the material application heads; and writing a computer numerical control output data file based at least in part on the machine axis position solutions. receiving a plurality of path definitions assigned to a plurality of composite material application heads associated with a tool carriage on the multihead composite material application machine, the plurality of path definitions including a first path definition assigned to a first composite material application head of the plurality of composite material application heads on the multihead composite material application machine; determining a median pathway relative to the plurality of path definitions; defining a constellation configuration, which is a configuration of the composite material application heads of the tool carriage, based upon the median pathway; assigning the first composite material application head to a first constellation position in response to determining the constellation configuration; computing a plurality of first machine axis position solutions based at least in part on the first path definition to control the first composite material application head; adding a profile to start a composite material feed mechanism and accelerate the composite material feed rate to match the velocity of the surface of the composite part relative to the material application heads; and writing a computer numerical control output data file based at least in part on the machine axis position solutions.
A method of manufacturing a secondary battery, comprising: a step of preparing a slurry containing a solvent and an electrode mixture containing succinonitrile (S 1); a step of preparing an electrode by coating the slurry to a current collector and drying the slurry; a step of preparing an electrode assembly by alternately laminating the electrode and a separator; a lamination step of heating and pressing the electrode assembly; and a step of accommodating the laminated electrode assembly in a battery case and injecting an electrolyte solution, wherein the step of preparing the electrode includes: a step of solidifying liquid succinonitrile by cooling the electrode, to which the electrode slurry has been applied, to a room temperature. a step of preparing a slurry containing a solvent and an electrode mixture containing succinonitrile (S 1); a step of preparing an electrode by coating the slurry to a current collector and drying the slurry; a step of preparing an electrode assembly by alternately laminating the electrode and a separator; a lamination step of heating and pressing the electrode assembly; and a step of accommodating the laminated electrode assembly in a battery case and injecting an electrolyte solution, wherein the step of preparing the electrode includes: a step of solidifying liquid succinonitrile by cooling the electrode, to which the electrode slurry has been applied, to a room temperature.
A sealing apparatus, comprising: a deformable component configured to be disposed in a borehole in an earth formation and provide a fluid-tight seal between downhole components or between a downhole component and a borehole, the deformable component including an elastomeric material and a barrier coating having properties configured to resist permeation of downhole gases into the elastomeric material at downhole temperatures, wherein the barrier coating has a hardness that is greater than a hardness of the elastomeric material, and wherein the barrier coating includes a diamond-like carbon coating with a thickness between 20 and 500 nm and having at least 70% of sp 3 bonds.
Connecting rod for a drive mechanism for a harness frame of a weaving machine comprising a profile with a cross-section having two long sides (45, 46) and two narrow sides (47, 48), and with a first end, and a connector (41, 43) attached to the first end of the profile, wherein the connector (41, 43) comprises two plate-shaped lugs (51, 52), each lug (51, 52) having a first section (54, 56) and a second section (55, 57), wherein the first sections (54, 56) project from the first end and are arranged for connecting the connecting rod (11, 14, 20, 22) to an element (10, 12, 13, 21, 23) of the drive mechanism, wherein the second sections (55, 57) each have an attachment surface, characterized in that each attachment surface is complementary in shape to one long side (45, 46) of the profile and being glued to said long side (45, 46) of the profile.
A method for manufacturing a CMOS image sensor encapsulation structure comprising: forming a blind hole in a combined layer formed by a first insulating layer and a wafer, wherein the blind hole passes through the first insulating layer with its hole bottom located on the wafer, and a surface of the first insulating layer facing away from the wafer has a micro convex lens; forming a second insulating layer on a hole wall of the blind hole, then filling an electrically conductive material in the blind hole having the second insulating layer, and making a conductor in the combined layer extend to a surface of the first insulating layer to be electrically connected to the electrically conductive material, with the conductor in signal connection with the micro convex lens and an IC comprising internal elements and circuits, characterized in that a position of the IC in the combined layer is located above a bottom portion of the blind hole; and fixing the transparent substrate material on a surface of the first insulating layer, with the surface having the micro convex lens, forming a dummy wafer on a surface of the transparent substrate material, and then thinning the wafer by grinding such that the electrically conductive material in the blind hole is exposed. forming a blind hole in a combined layer formed by a first insulating layer and a wafer, wherein the blind hole passes through the first insulating layer with its hole bottom located on the wafer, and a surface of the first insulating layer facing away from the wafer has a micro convex lens; forming a second insulating layer on a hole wall of the blind hole, then filling an electrically conductive material in the blind hole having the second insulating layer, and making a conductor in the combined layer extend to a surface of the first insulating layer to be electrically connected to the electrically conductive material, with the conductor in signal connection with the micro convex lens and an IC comprising internal elements and circuits, characterized in that a position of the IC in the combined layer is located above a bottom portion of the blind hole; and fixing the transparent substrate material on a surface of the first insulating layer, with the surface having the micro convex lens, forming a dummy wafer on a surface of the transparent substrate material, and then thinning the wafer by grinding such that the electrically conductive material in the blind hole is exposed.
A process for producing a resin substrate having a hard coating layer on at least one side of a resin substrate, comprising, in the following order: a step of applying a hard coating composition containing an organopolysiloxane to at least one side of the resin substrate to form a coating film of the composition, and then applying a first heat treatment to the coating film to form a cured film, wherein the organopolysiloxane is composed solely of T units and Q units, and the ratio in number of T:Q is from 90 to 100:10 to 0; an irradiation step of applying a Xe 2 excimer light irradiation treatment to the cured film in an atmosphere having an oxygen concentration of at most 5 vol%, wherein the Xe 2 excimer light irradiation treatment is a treatment such that the Xe 2 excimer light irradiation energy on the surface of the cured film is from 500 to 8,000 mJ/cm 2; and a step of applying an oxidation treatment to the cured film obtained by the irradiation step and then further applying a second heat treatment to form the hard coating layer. a step of applying a hard coating composition containing an organopolysiloxane to at least one side of the resin substrate to form a coating film of the composition, and then applying a first heat treatment to the coating film to form a cured film, wherein the organopolysiloxane is composed solely of T units and Q units, and the ratio in number of T:Q is from 90 to 100:10 to 0; an irradiation step of applying a Xe 2 excimer light irradiation treatment to the cured film in an atmosphere having an oxygen concentration of at most 5 vol%, wherein the Xe 2 excimer light irradiation treatment is a treatment such that the Xe 2 excimer light irradiation energy on the surface of the cured film is from 500 to 8,000 mJ/cm 2; and a step of applying an oxidation treatment to the cured film obtained by the irradiation step and then further applying a second heat treatment to form the hard coating layer.
A device for determining a location on an elongated workpiece and being manually movable on the workpiece the device comprising: - a frame movable in a first direction, preferably in a longitudinal direction of the workpiece, consequently moving the whole device on the workpiece in said direction, - positioning means to position the frame in relation to the sides of the workpiece, wherein the positioning means fix the frame so that the frame doesn't move in the second direction but so that the frame may move in the longitudinal direction of the workpiece, - movable means movable in a second direction, preferably in a transverse direction in relation to the workpiece and with respect to the frame, - a measuring point, the movement in first direction and second direction being used to move measuring point in said directions, - the device comprising measuring equipment (110a, 110b, 110c) for determining the location of the measuring point in transverse and longitudinal respect to the workpiece, - the measuring equipment comprising longitudinal measuring equipment for determining the longitudinal location of the measuring point with respect to the workpiece and measuring equipment for determining the transverse movement of the movable means, - characterized in that the measuring equipment comprises a further measuring equipment related to the positioning means, to detect the specific width of the workpiece. - a frame movable in a first direction, preferably in a longitudinal direction of the workpiece, consequently moving the whole device on the workpiece in said direction, - positioning means to position the frame in relation to the sides of the workpiece, wherein the positioning means fix the frame so that the frame doesn't move in the second direction but so that the frame may move in the longitudinal direction of the workpiece, - movable means movable in a second direction, preferably in a transverse direction in relation to the workpiece and with respect to the frame, - a measuring point, the movement in first direction and second direction being used to move measuring point in said directions, - the device comprising measuring equipment (110a, 110b, 110c) for determining the location of the measuring point in transverse and longitudinal respect to the workpiece, - the measuring equipment comprising longitudinal measuring equipment for determining the longitudinal location of the measuring point with respect to the workpiece and measuring equipment for determining the transverse movement of the movable means, - characterized in that the measuring equipment comprises a further measuring equipment related to the positioning means, to detect the specific width of the workpiece.
Exhaust emission control device, comprising at least one exhaust gas line and at least one particulate filter connected to the exhaust gas line and/or at least one exhaust gas catalytic converter (32, 33) connected to the exhaust gas line, wherein a heated catalyst is arranged upstream of the particulate filter and/or the exhaust gas catalytic converter and is designed to react supplied fuel with exhaust gas, the heated catalyst having a housing, which has an inlet and an outlet and which is connected to the exhaust gas line in such a way that a partial flow of the exhaust gas flowing in the exhaust gas line can be fed through the inlet into the housing and can be discharged from the housing through the outlet into the exhaust gas line downstream of the inlet, characterized in that the heated catalyst further contains a perforated plate, which is designed to supply the exhaust gas to the heated catalyst and a pressure reduction device is available in the exhaust gas line between inlet and outlet.