mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring characteristics of a transmitter unit of a device under test, with the following steps: a) Providing a signal generator comprising a baseband processing unit having at least a digital pre-distortion sub-unit, b) Providing a device under test having a transmitter unit, c) Providing a measuring unit, d) Connecting said signal generator and said device under test with each other via an interface, e) Generating at least one input signal by using said signal generator, said input signal is forwarded to said device under test, f) Measuring an output signal of said device under test by using said measuring unit, characterized by: g) Determining a first pre-distortion parameter for an increasing input amplitude by using said digital pre-distortion sub-unit, and h) Determining a second pre-distortion parameter different to the first pre-distortion parameter for a decreasing input amplitude by using said digital pre-distortion sub-unit, said first and second pre-distortion parameters being determined such that said output signal has a high fidelity, wherein said baseband processing unit divides a composition of said output signal into two parts wherein a first part relates to an increasing input amplitude for said first pre-distortion parameter and a second part relates to a decreasing input amplitude for said second pre-distortion parameter. a) Providing a signal generator comprising a baseband processing unit having at least a digital pre-distortion sub-unit, b) Providing a device under test having a transmitter unit, c) Providing a measuring unit, d) Connecting said signal generator and said device under test with each other via an interface, e) Generating at least one input signal by using said signal generator, said input signal is forwarded to said device under test, f) Measuring an output signal of said device under test by using said measuring unit, g) Determining a first pre-distortion parameter for an increasing input amplitude by using said digital pre-distortion sub-unit, and h) Determining a second pre-distortion parameter different to the first pre-distortion parameter for a decreasing input amplitude by using said digital pre-distortion sub-unit, said first and second pre-distortion parameters being determined such that said output signal has a high fidelity,
Applicator system for applying at least one flowable substance, with a body forming at least one reservoir (5; 6) for storing at least one substance to be applied, a pump device for expelling the at least one substance out of the reservoir (5; 6), a detachable applicator for applying the at least one substance and a duct system (16, 17, 18, 19, 20, 21) for feeding the at least one pumped substance from the reservoir (5; 6) out of the body through the applicator to at least one mouth of the applicator, whereby the applicator system comprises a movable valve (12, 13) that can be moved from an open to a closed position and vice versa by means of moving the applicator relative to the body, the valve (12, 13) comprising a valve seat and a valve body, characterized in that said valve body is hold in place by the valve seat constituted by the body so that the valve body is rotatable relative to the body and in that the applicator is designed that way that it can be directly coupled to the valve body which comprises a coupling for fixing the applicator by sticking an annular extension of the applicator into an annular notch of the valve body so that it forms a handle for rotating the valve body from close to open position and vice versa
A brick of standard length and height but of width increased relative to the width of a standard brick by around one half of the standard width, at least one thumbhole extending from a major face of the brick characterised in that, the thumbhole being located substantially centrally with respect to the length of the brick and located non-centrally, with respect to the width of the brick such that the distance between the side formed by the length of the brick more remote from the thumbhole and the edge of the thumbhole nearest that side corresponds substantially to the width of a standard brick.
Method of writing data into a data archive, comprising storing said data in a first portion (12, 15; 22; 132, 135) of said data archive (11, 14; 21; 131, 134), generating an entry (31-34; 62-67; 192-195) in a second portion (13, 16; 23; 61; 133, 136; 181, 191) of said data archive (11, 14; 21; 131, 134), said entry (31-34; 62-67; 192-195) comprising an identifier for said data and being indicative of a storage location of said data in said first portion (12, 15; 22; 132, 135), and determining whether said data (26, 27) correspond to one of a plurality of variants for a given data resource, characterized by when said data (26, 27) are determined to correspond to one of said plurality of variants for said given data resource generating a further entry (35; 69, 70; 196, 197) in said second portion (13, 16; 23; 61; 133, 136; 181, 191), said further entry (35; 69, 70; 196, 197) comprising an identifier for said given data resource and an identifier for said entry (33, 34; 64-67; 192-195), wherein, said steps of storing data and generating an entry are performed for a plurality of data (26, 27) corresponding to said plurality of variants, thereby generating a plurality of entries (33, 34; 64-67; 192-195) in said second portion, and wherein said further entry (35; 69, 70; 196, 197) is generated so as to comprise the identifier for each one of said plurality of entries (33, 34; 64-67; 192-195).
Method for producing a metal spindle nut for a ball screw drive, comprising the steps of: - providing a substantially cylindrical workpiece of metal having a first end face and a second end face and a lateral surface, - forming the workpiece by pressing an axially symmetrical central opening and by simultaneously pressing at least a first and a second, axis-parallel aligned channel into the lateral surface of the workpiece, wherein the central opening and the channels (18, 20) are open towards the first end face, and - introducing an internal thread into the central opening, and - forming at least the first channel as a transfer channel by introducing at least two radially extending passage openings (22, 24) into said channel for accommodating deflection inserts (26, 28). - providing a substantially cylindrical workpiece of metal having a first end face and a second end face and a lateral surface, - forming the workpiece by pressing an axially symmetrical central opening and by simultaneously pressing at least a first and a second, axis-parallel aligned channel into the lateral surface of the workpiece, wherein the central opening and the channels (18, 20) are open towards the first end face, and - introducing an internal thread into the central opening, and - forming at least the first channel as a transfer channel by introducing at least two radially extending passage openings (22, 24) into said channel for accommodating deflection inserts (26, 28).
Winding body for a superconductive secondary winding for a superconductive current-limiting transformer, the winding body having a hollow-cylindrical basic shape, the winding body comprising a plurality of depressions and casing portions distributed around its circumference in a longitudinal direction, and comprising grooves in the casing portions in the circumferential direction, wherein the winding body is configured such that a superconductive conductor (4a, 15) of the secondary winding can be wound around the winding body in a normal state such that the conductor (4a, 15) rests against the casing portions and is received in the grooves, and wherein a gap can be formed between the conductor (4a, 15) and each of the depressions, characterized in that each depression comprises a bottom that is concavely curved with respect to a longitudinal axis of the winding body, wherein the a radius of the bottom corresponds to a radius that is larger than a minimum bend radius of the superconductive conductor (4a, 15).
A signal processing device for processing a plurality of observed signals (V1, V2) at a plurality of frequencies, the plurality of the observed signals (V1, V2) being produced by a plurality of sound receiving devices (M1, M2) which receive a mixture of a plurality of sounds, the signal processing device comprising: a storage means that stores observed data (D(fk)) of the plurality of the observed signals (V1, V2), the observed data (D(fk)) representing a time series of magnitude of each frequency (fk) in each of the plurality of the observed signals (V1, V2); said signal processing device being characterised by an index calculation means that calculates an index value (z(fk)) from the observed data (D(fk)) for each of the plurality of the frequencies (fk), the index value (z(fk)) indicating significance of learning of a separation matrix (W(fk)) using the observed data of each frequency, the separation matrix (W(fk)) being generated for each of the plurality of frequencies (fk) and being used for separation of the plurality of the sounds; a frequency selection means that selects at least one frequency (f) from the plurality of the frequencies (fk) according to the index value (z(fk)) of each frequency (fk) calculated by the index calculation means; and a learning processing means that determines the separation matrix (W(fk)) for each frequency (fk) selected by the frequency selection means by learning with a given initial separation matrix (W0(fk)) using the observed data (D(fk)) of the frequency (fk) selected by the frequency selection means among the plurality of the observed data (D(fk)) stored in the storage means. a storage means that stores observed data (D(fk)) of the plurality of the observed signals (V1, V2), the observed data (D(fk)) representing a time series of magnitude of each frequency (fk) in each of the plurality of the observed signals (V1, V2); said signal processing device being characterised by an index calculation means that calculates an index value (z(fk)) from the observed data (D(fk)) for each of the plurality of the frequencies (fk), the index value (z(fk)) indicating significance of learning of a separation matrix (W(fk)) using the observed data of each frequency, the separation matrix (W(fk)) being generated for each of the plurality of frequencies (fk) and being used for separation of the plurality of the sounds; a frequency selection means that selects at least one frequency (f) from the plurality of the frequencies (fk) according to the index value (z(fk)) of each frequency (fk) calculated by the index calculation means; and a learning processing means that determines the separation matrix (W(fk)) for each frequency (fk) selected by the frequency selection means by learning with a given initial separation matrix (W0(fk)) using the observed data (D(fk)) of the frequency (fk) selected by the frequency selection means among the plurality of the observed data (D(fk)) stored in the storage means.
Support foot, in particular for support frames for shower trays and bathtubs, comprising a connecting piece with a central bore, which has an internal thread, which is in threaded engagement with a threaded rod, which is connected to a support part, and a receiving piece for connection to a support frame, wherein the connecting piece has a retaining dome, which can be connected in a form-fitting and/or force-fitting manner to a retaining sleeve arranged on the receiving piece, wherein the retaining dome has an external thread, which can be screwed into an internal thread provided in the retaining sleeve, characterised in that a displaceably, rotatably and/or pivotably mounted securing part is arranged on the receiving piece, which has a projecting locking piece, which can be moved into an engagement provided in the connecting piece, whereby the connecting piece can be blocked in at least one rotational direction.
A probiotic granule comprising a core and at least three layers comprising i) a core comprising probiotic microorganisms and a substrate in which said microorganisms are absorbed; ii) an inner oily layer coating said core; and iii) a first outer layer comprising an enteric coating layer selected from the group consisting of alginic acid, ammonia alginate, sodium alginate, potassium alginate, magnesium alginate and calcium alginate; iv) a second outer layer which is an outer heat resistant coating layer comprising at least one polymer selected from the group consisting of chitosan and cross-linked derivatives of hydroxypropylcellulose; and wherein said first and second outer layers coat said core and said inner layer, and comprise at least two different polymers. i) a core comprising probiotic microorganisms and a substrate in which said microorganisms are absorbed; ii) an inner oily layer coating said core; and iii) a first outer layer comprising an enteric coating layer selected from the group consisting of alginic acid, ammonia alginate, sodium alginate, potassium alginate, magnesium alginate and calcium alginate; iv) a second outer layer which is an outer heat resistant coating layer comprising at least one polymer selected from the group consisting of chitosan and cross-linked derivatives of hydroxypropylcellulose; and
A device for detaching a tooth root comprising: a lead screw having a threaded point for screwing into the tooth root, and a threaded shaft; a pivoting member including a bore through which the lead screw passes, the lead screw being retractable through the bore by rotational engagement of a threaded member with the threaded shaft of the lead screw; and a platform for supporting the pivoting member such that the lead screw is able to pivot relative to the platform, characterized in that the lead screw includes a locking surface (325, 425), the locking surface comprising opposing planar surfaces of a shaft of the lead screw, the locking surface configured to be received in, and engage with a locking tool to prevent rotation of the lead screw during rotational engagement of the threaded member with the threaded shaft. a lead screw having a threaded point for screwing into the tooth root, and a threaded shaft; a pivoting member including a bore through which the lead screw passes, the lead screw being retractable through the bore by rotational engagement of a threaded member with the threaded shaft of the lead screw; and a platform for supporting the pivoting member such that the lead screw is able to pivot relative to the platform, characterized in that the lead screw includes a locking surface (325, 425), the locking surface comprising opposing planar surfaces of a shaft of the lead screw, the locking surface configured to be received in, and engage with a locking tool to prevent rotation of the lead screw during rotational engagement of the threaded member with the threaded shaft.
An adhesive film for a semiconductor, comprising: a first layer including a first adhesive binder and a heat-dissipating filler; and a second layer including a second adhesive binder and a magnetic filler, the second layer positioned on at least one surface of the first layer, wherein the first and second adhesive binders are the same as or different from each other and include a (meth)acrylate-based resin including a (meth)acrylate-based repeating unit containing an epoxy-based functional group and a (meth)acrylate-based repeating unit containing an aromatic functional group, a curing agent including a phenol resin, and an epoxy resin, wherein the (meth)acrylate-based resin has a hydroxyl equivalent weight of 0.15 eq/kg or less, wherein the hydroxyl equivalent is measured as disclosed in the description. wherein the heat-dissipating filler includes at least one selected from the group consisting of alumina (Al 2 O 3), boron nitride, aluminum nitride, silicon carbide (SiC), magnesium oxide (MgO), zinc oxide (ZnO), and aluminum hydroxide (Al 3), and wherein the magnetic filler includes at least one selected from the group consisting of an iron-silicon-aluminum alloy, an iron-silicon alloy, an iron-chromium-silicon alloy, an iron-chromium alloy, a nickel-iron alloy, carbonyl iron, nickel-zinc ferrite, and manganese-zinc ferrite. a first layer including a first adhesive binder and a heat-dissipating filler; and a second layer including a second adhesive binder and a magnetic filler, the second layer positioned on at least one surface of the first layer, wherein the first and second adhesive binders are the same as or different from each other and include a (meth)acrylate-based resin including a (meth)acrylate-based repeating unit containing an epoxy-based functional group and a (meth)acrylate-based repeating unit containing an aromatic functional group, a curing agent including a phenol resin, and an epoxy resin, wherein the (meth)acrylate-based resin has a hydroxyl equivalent weight of 0.15 eq/kg or less, wherein the hydroxyl equivalent is measured as disclosed in the description. wherein the heat-dissipating filler includes at least one selected from the group consisting of alumina (Al 2 O 3), boron nitride, aluminum nitride, silicon carbide (SiC), magnesium oxide (MgO), zinc oxide (ZnO), and aluminum hydroxide (Al 3), and wherein the magnetic filler includes at least one selected from the group consisting of an iron-silicon-aluminum alloy, an iron-silicon alloy, an iron-chromium-silicon alloy, an iron-chromium alloy, a nickel-iron alloy, carbonyl iron, nickel-zinc ferrite, and manganese-zinc ferrite.
Clamping unit having a clamping module, the clamping module comprising a clamping seat and clamping means movable in a locking position, wherein, in the locking position, a clamping element co-operating with the clamping seat is pulled into the clamping seat by the clamping means and is locked there, characterized in that a swivel insert is provided which allows swiveling of the clamping module around a swiveling axis extending crosswise to the center axis of the swiveling insert, and that detachable fixing means are provided which are movable into a fixing position in which the swiveling insert is fixed.
A method for separating a viscous material suspended from a probe of an automated pipettor, said method comprising the steps of: (a) lowering the probe into a receptacle (160, 162, 164) through an opening (42, 224, 244, 264, 284, 304) formed in a cover disposed over the receptacle, the receptacle containing a viscous material; (b) drawing at least a portion of the viscous material into the probe; (c) removing the probe from the receptacle to a position above the cover, whereby a string of the viscous material is suspended from the probe; (d) moving the probe laterally with respect to the opening to a position offset from the opening and adjacent a raised structure (44, 220, 240, 260, 280, 300) formed on the cover; and (e) moving the probe laterally along a path comprising movement in first and second directions, wherein the transition from movement in the first direction to movement in the second direction causes the string of viscous material to contact the raised structure, and wherein the continued movement of the probe along the path causes at least a portion of the string of viscous material to be separated from the probe. (a) lowering the probe into a receptacle (160, 162, 164) through an opening (42, 224, 244, 264, 284, 304) formed in a cover disposed over the receptacle, the receptacle containing a viscous material; (b) drawing at least a portion of the viscous material into the probe; (c) removing the probe from the receptacle to a position above the cover, whereby a string of the viscous material is suspended from the probe; (d) moving the probe laterally with respect to the opening to a position offset from the opening and adjacent a raised structure (44, 220, 240, 260, 280, 300) formed on the cover; and (e) moving the probe laterally along a path comprising movement in first and second directions, wherein the transition from movement in the first direction to movement in the second direction causes the string of viscous material to contact the raised structure, and wherein the continued movement of the probe along the path causes at least a portion of the string of viscous material to be separated from the probe.
A pump, comprising: a piston chamber (202, 302); a port (208, 308); a piston (204, 304) disposed within the piston chamber (202, 302) and adapted to draw fluid into the piston chamber (202, 302) through the port as the piston moves away from the port; a valve (230, 330) operatively coupled to the port (208, 308) and configured to block the fluid from exiting the piston chamber (202, 302) through the port (208. 308) as the piston (204, 304) moves toward the port (208, 308); and characterized by a filter (228, 328) configured to separate gas from liquid in the fluid as the piston (204, 304) moves toward the filter (228, 328), while retaining the liquid in the piston chamber (202, 302). a piston chamber (202, 302); a port (208, 308); a piston (204, 304) disposed within the piston chamber (202, 302) and adapted to draw fluid into the piston chamber (202, 302) through the port as the piston moves away from the port; a valve (230, 330) operatively coupled to the port (208, 308) and configured to block the fluid from exiting the piston chamber (202, 302) through the port (208. 308) as the piston (204, 304) moves toward the port (208, 308); and characterized by a filter (228, 328) configured to separate gas from liquid in the fluid as the piston (204, 304) moves toward the filter (228, 328), while retaining the liquid in the piston chamber (202, 302).
A container (100, 600), comprising: a plurality of planar panels (200, 200') integrally arranged with respect to each other and with respect to a set of orthogonal x, y and z axes, the z-axis defining a direction line in which the container (100, 600) is configured to support a stacking load, the plurality of panels (200, 200') being foldable to create the container (100, 600); wherein the plurality of planar panels (200, 200') comprise a first panel disposed parallel to the z-axis; wherein the first panel comprises a first side portion (204, 204"), a second side portion (206, 206"), and a display portion disposed between the first and second side portions (204, 206; 204", 206"), the first and second side portions (204, 206; 204", 206") and the display portion being coplanar and bordering at least a portion of a product display opening; characterized by the first panel further comprising a first relief feature disposed between the display portion and the first side portion (204, 204"), and a second relief feature disposed between the display portion and the second side portion (206, 206"); and the at least a portion of the product display opening and the first and second relief features (212, 214) being formed by an absence of material of the first panel. a plurality of planar panels (200, 200') integrally arranged with respect to each other and with respect to a set of orthogonal x, y and z axes, the z-axis defining a direction line in which the container (100, 600) is configured to support a stacking load, the plurality of panels (200, 200') being foldable to create the container (100, 600); wherein the plurality of planar panels (200, 200') comprise a first panel disposed parallel to the z-axis; wherein the first panel comprises a first side portion (204, 204"), a second side portion (206, 206"), and a display portion disposed between the first and second side portions (204, 206; 204", 206"), the first and second side portions (204, 206; 204", 206") and the display portion being coplanar and bordering at least a portion of a product display opening; characterized by the first panel further comprising a first relief feature disposed between the display portion and the first side portion (204, 204"), and a second relief feature disposed between the display portion and the second side portion (206, 206"); and the at least a portion of the product display opening and the first and second relief features (212, 214) being formed by an absence of material of the first panel.