mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor module, comprising: a semiconductor device; a substrate, on which the semiconductor device is attached; a molded encasing, into which the semiconductor device and the substrate are molded; at least one power terminal partially molded into the encasing and protruding from the encasing, which power terminal is electrically connected with the semiconductor device; and an encased circuit board at least partially molded into the encasing; and characterised in that the encased circuit board protrudes over the substrate in an extension direction of the substrate, wherein the encased circuit board comprises at least one receptacle for a pin, the receptacle being electrically connected via the encased circuit board with a control input of the semiconductor device. a semiconductor device; a substrate, on which the semiconductor device is attached; a molded encasing, into which the semiconductor device and the substrate are molded; at least one power terminal partially molded into the encasing and protruding from the encasing, which power terminal is electrically connected with the semiconductor device; and an encased circuit board at least partially molded into the encasing; and characterised in that the encased circuit board protrudes over the substrate in an extension direction of the substrate, wherein the encased circuit board comprises at least one receptacle for a pin, the receptacle being electrically connected via the encased circuit board with a control input of the semiconductor device.
A processor-based method for flash-friendly caching, comprising: reading requested data from a first memory, responsive to determining that the requested read data is not available in a cache; writing the read data to a second memory, in the cache, responsive to reading the read data from the first memory; characterised by performing an aligned block write of data from the second memory in the cache to a flash memory in the cache, responsive to accumulating sufficient data for the aligned block write, wherein the aligned block write is a write that is aligned to block boundaries in an address space; and switching alternating sections of the second memory, responsive to the accumulating the sufficient data for the aligned block write, so that a second section of the second memory accumulates further data for a subsequent aligned block write while a first section of the second memory performs the aligned block write with accumulated data. reading requested data from a first memory, responsive to determining that the requested read data is not available in a cache; writing the read data to a second memory, in the cache, responsive to reading the read data from the first memory; characterised by performing an aligned block write of data from the second memory in the cache to a flash memory in the cache, responsive to accumulating sufficient data for the aligned block write, wherein the aligned block write is a write that is aligned to block boundaries in an address space; and switching alternating sections of the second memory, responsive to the accumulating the sufficient data for the aligned block write, so that a second section of the second memory accumulates further data for a subsequent aligned block write while a first section of the second memory performs the aligned block write with accumulated data.
A micro-tunneling machine comprising: a cutting module comprising a cylindrical body extending axially between a rear portion and a front portion, and a cutting head located at the front of the cylindrical body opposite the rear portion, the cutting head being rotatable with respect to the cylindrical body about the axis of the cylindrical body, a fluid circulation device for injecting a drilling fluid and sucking up the drilling cuttings in the front portion of the cylindrical body, at least one sinking pipe located at the rear of the cylindrical body; an injection device for injecting a lubricating fluid outside the sinking pipe; wherein the cutting module further comprises an annular seal located on the outer face of the cylindrical body, the diameter of the annular seal being at least equal to the diameter of the cutting head, such that the annular seal comes into contact with the ground during drilling to achieve a fluidic separation between the drilling fluid and the lubricating fluid, wherein the annular seal comprises a collar formed of a plurality of fins juxtaposed and elastically movable with respect to the cylindrical body, at least one of the fins being inclined with respect to the cylindrical body, characterized in that the fins overlap laterally at least partially in pairs. a cutting module comprising a cylindrical body extending axially between a rear portion and a front portion, and a cutting head located at the front of the cylindrical body opposite the rear portion, the cutting head being rotatable with respect to the cylindrical body about the axis of the cylindrical body, a fluid circulation device for injecting a drilling fluid and sucking up the drilling cuttings in the front portion of the cylindrical body, at least one sinking pipe located at the rear of the cylindrical body; an injection device for injecting a lubricating fluid outside the sinking pipe; wherein the cutting module further comprises an annular seal located on the outer face of the cylindrical body, the diameter of the annular seal being at least equal to the diameter of the cutting head, such that the annular seal comes into contact with the ground during drilling to achieve a fluidic separation between the drilling fluid and the lubricating fluid, wherein the annular seal comprises a collar formed of a plurality of fins juxtaposed and elastically movable with respect to the cylindrical body, at least one of the fins being inclined with respect to the cylindrical body, characterized in that the fins overlap laterally at least partially in pairs.
A skin cleansing composition comprising: (a)a low molecular weight, non-crosslinked, linear acrylic copolymer, wherein the low molecular weight non-crosslinked linear acrylic copolymer comprises a copolymer containing a first monomeric component selected from the group consisting of (meth)acrylic acid and a second monomeric component selected from the group consisting of at least one C 1 to C 9 alkyl (meth)acrylate, wherein the low molecular weight non-crosslinked linear acrylic copolymer has a number average molecular weight (M n) as measured by gel permeation chromatography calibrated with a poly(methyl methacrylate) (PMMA) standard of 100000 or less; and (b)at least one non-ethoxylated anionic surfactant comprising more than 2 weight percent of the skin cleansing composition; wherein the total surfactant load of said skin cleansing composition is not greater than 9 weight percent of the skin cleansing composition; the pH of said skin cleansing composition is 6 or less; and the skin cleansing composition is a clear composition, as defined by either: 1) a count of 70 kcts/s or less in a light scattering test as determined by the Light Scattering Test defined in the methods section; and/or 2) a transmittance of greater than 90% as determined by the Clarity Test as defined in the methods section. (a)a low molecular weight, non-crosslinked, linear acrylic copolymer, wherein the low molecular weight non-crosslinked linear acrylic copolymer comprises a copolymer containing a first monomeric component selected from the group consisting of (meth)acrylic acid and a second monomeric component selected from the group consisting of at least one C 1 to C 9 alkyl (meth)acrylate, wherein the low molecular weight non-crosslinked linear acrylic copolymer has a number average molecular weight (M n) as measured by gel permeation chromatography calibrated with a poly(methyl methacrylate) (PMMA) standard of 100000 or less; and (b)at least one non-ethoxylated anionic surfactant comprising more than 2 weight percent of the skin cleansing composition; 1) a count of 70 kcts/s or less in a light scattering test as determined by the Light Scattering Test defined in the methods section; and/or 2) a transmittance of greater than 90% as determined by the Clarity Test as defined in the methods section.
A rotor for a device for the comminution of input material, the device having a drive shaft on which a predetermined number of rotor discs (4, 4') are positioned in a rotationally fixed manner and having grinding tools arranged about a circumference of the rotor discs, wherein, between the rotor discs (4, 4') forming axial ends of the rotor and the drive shaft for transferring a torque, frictional connection elements are arranged, wherein power transmission elements are arranged in the contact surface between two adjacent rotor discs (4, 4') and wherein the rotor discs (4, 4') are clamped together with axially acting clamping elements.
Screw-type compressor for a utility vehicle having at least one housing with at least a housing cover and with at least a rotor housing, at least one baffle plate and with at least one seal, wherein, in the assembled condition, an oil sump is present in the housing, wherein, again in the assembled condition, the seal is arranged between the housing cover and the rotor housing, and wherein, in the assembled condition, when the screw compressor is orientated horizontally and the oil sump is orientated horizontally the baffle plate is substantially parallel to the upper level of the oil sump, characterised in that the seal projects out of the oil sump and the seal at least partially separates the inside of the housing cover from the inside of the rotor housing.
Rollator, wherein the rollator comprises two hand grips, each hand grip comprising a first hand grip part and a second hand grip part, the second hand grip part being positioned in front of the first hand grip part such that the second hand grip part is further away from the user in operation of the rollator than the first hand part, wherein the first hand grip part is adapted to be held during movement of the rollator, and the second hand grip part is adapted to be a stand-up support, wherein at least part of the second hand grip part is protruding to be gripped by the user from above and from below the second hand grip part, characterized in that the second hand grip part has a limitation in the forward direction for allowing the user to enclose the hand grip part in particular at the front side of the second hand grip part.
A baffle float system for a baler (10, 60), comprising: a pair of first pivot arms (114, 116) configured to pivotally couple to a frame of the baler (10, 60) and to a cross-member, the first pivot arms (114, 116) pivot about a first pivot axis; a baffle coupled to the cross-member; a pair of second pivot arms (150, 152) having a first end coupled to the cross-member and a second end; a compressor rack coupled to the second end of each of the second pivot arms (150, 152) such that the compressor rack pivots relative to the second end along a second pivot axis, the second pivot axis different than the first pivot axis; and at least one biasing member coupled to the compressor rack so as to be offset from the second pivot axis, wherein an input force of the at least one biasing member results in a resultant force that acts on the compressor rack and on the baffle. a pair of first pivot arms (114, 116) configured to pivotally couple to a frame of the baler (10, 60) and to a cross-member, the first pivot arms (114, 116) pivot about a first pivot axis; a baffle coupled to the cross-member; a pair of second pivot arms (150, 152) having a first end coupled to the cross-member and a second end; a compressor rack coupled to the second end of each of the second pivot arms (150, 152) such that the compressor rack pivots relative to the second end along a second pivot axis, the second pivot axis different than the first pivot axis; and at least one biasing member coupled to the compressor rack so as to be offset from the second pivot axis, wherein an input force of the at least one biasing member results in a resultant force that acts on the compressor rack and on the baffle.
A method for managing a machine that is configured with multiple operation options that can be selectively enabled comprising: providing a software operation key separable from the machine, the software operation key further comprising a wireless interface and a memory, the memory further comprising a programmable serial region and an option code, the option code being usable to direct the machine to operate in a particular configuration; placing the software operation key into the machine; characterized in that the method comprises: determining that at least one software operation key is present; reading via the wireless interface the programmable serial region of the memory and if found blank, initializing it with a machine identification number; comparing the content of the programmable serial region if not blank with the machine identification number; wherein if the content of the programmable serial region does not match the machine identification number, operating the machine in accordance with a default configuration; and if the content of the programmable serial region does match the machine identification number, reading the memory via the wireless interface and placing the option code into the machine; and operating the machine in accordance with the option code. providing a software operation key separable from the machine, the software operation key further comprising a wireless interface and a memory, the memory further comprising a programmable serial region and an option code, the option code being usable to direct the machine to operate in a particular configuration; placing the software operation key into the machine; determining that at least one software operation key is present; reading via the wireless interface the programmable serial region of the memory and if found blank, initializing it with a machine identification number; comparing the content of the programmable serial region if not blank with the machine identification number; wherein if the content of the programmable serial region does not match the machine identification number, operating the machine in accordance with a default configuration; and if the content of the programmable serial region does match the machine identification number, reading the memory via the wireless interface and placing the option code into the machine; and operating the machine in accordance with the option code.
A double row thrust bearing assembly comprising: a bottom plate having inner and outer conical raceways (12, 13); a top plate having a flat raceway; respective sets of inner and outer rollers (16, 17) in which the largest diameter of the inner rollers is not less than the largest diameter of the outer rollers and in which said inner and outer rollers are tapered rollers with an outer end of each roller being larger in diameter than an inner end thereof; and, when the bearing is fully assembled, the apices of the inner and outer rollers are directed at the same point on an axis of the bearing assembly, whereby the bearing assembly is capable of supporting greater loads than can be carried by a single row thrust bearing assembly while fitting within the same spatial envelope as is occupied by the single row thrust bearing assembly; characterized in that the load carrying capacity of the bearing assembly is maximized in accordance with the equation D i D o ≥ cosα cosβ which defines the relationship of the diameters between the inner and outer rollers and in which D i = EE' is the roller diameter at a large end of said inner rollers, D o = DD' is the roller diameter at a large end of said outer rollers, α is a half included angle for the outer rollers, and β is a half included angle for the inner rollers. a bottom plate having inner and outer conical raceways (12, 13); a top plate having a flat raceway; respective sets of inner and outer rollers (16, 17) in which the largest diameter of the inner rollers is not less than the largest diameter of the outer rollers and in which said inner and outer rollers are tapered rollers with an outer end of each roller being larger in diameter than an inner end thereof; and, when the bearing is fully assembled, the apices of the inner and outer rollers are directed at the same point on an axis of the bearing assembly, whereby the bearing assembly is capable of supporting greater loads than can be carried by a single row thrust bearing assembly while fitting within the same spatial envelope as is occupied by the single row thrust bearing assembly; characterized in that the load carrying capacity of the bearing assembly is maximized in accordance with the equation D i D o ≥ cosα cosβ which defines the relationship of the diameters between the inner and outer rollers and in which D i = EE' is the roller diameter at a large end of said inner rollers, D o = DD' is the roller diameter at a large end of said outer rollers, α is a half included angle for the outer rollers, and β is a half included angle for the inner rollers.
An electrochemical cell comprising a housing having a first end an opposing second end and cylindrical side wall therebetween and an end cap assembly inserted into one of said ends closing said housing, wherein said cell has an anode material comprising zinc, an aqueous alkaline electrolyte solution, a cathode material comprising manganese dioxide, and a separator between said anode and cathode, wherein said separator comprises a first and a second individual sheet, wherein each of said sheets has a leading edge and an opposing trailing edge, wherein said sheets are applied one onto the other so that at least a substantial portion of the first sheet faces and contacts a substantial portion of the second sheet and said sheets are wound forming said separator having a tubular shape, said leading edge of each of said sheets being defined as the edge of each of said sheets leading in the direction of wind, and wherein the wound separator has a top edge and an opposing bottom edge, said bottom edge is folded and heat sealed to form a closed bottom end of said wound separator, wherein said top edge defines an open end of said wound separator when the wound separator is viewed in vertical position with the open end on top, wherein the remaining portion of the first and second sheets facing each other are in contact with each other but are not glued and are not bonded to each other, said facing portions of the first and second sheets forming the separator body.
A method for dismantling alkaline batteries for recycling, the method comprising the steps of: positioning at least one alkaline battery having an anode material with a viscous consistency proximate at least one fluid jet; removing first and second ends of the at least one battery using the at least one fluid jet, thereby exposing an interior of the at least one battery; positioning the at least one battery proximate a fluid gun; removing at least the anode material from the interior using the fluid gun; and capturing at least the anode material. positioning at least one alkaline battery having an anode material with a viscous consistency proximate at least one fluid jet; removing first and second ends of the at least one battery using the at least one fluid jet, thereby exposing an interior of the at least one battery; positioning the at least one battery proximate a fluid gun; removing at least the anode material from the interior using the fluid gun; and capturing at least the anode material.
A process for producing hydrocarbons from biomass, the process comprising the following steps: - a pyrolysis step in which dry biomass (B d) is indirectly heated to a temperature of about 350-500 °C in an inert environment, wherein a pyrolysis product and char is produced; - a pyrolysis separator step in which the char is separated from the pyrolysis product, - a gasification step, in which the separated char is indirectly heated to a temperature of about 900-1300 °C in an environment containing water steam (W st), but substantially free from oxygen and halogens as to reduce said char to produce a synthesis gas (S h), - a step of cooling and refining the produced synthesis gas (S h) so as to produce a purified synthesis gas (S p) comprising mainly carbon monoxide and hydrogen, - a gas separator step in which said hydrogen gas (H 2) is separated from the purified synthesis gas (S p), characterised by retrieving pyrolysis oil from the pyrolysis product and by recuperating at least a portion of the separated hydrogen gas (H 2) into a hydrogenation step, in which the pyrolysis oil is hydrogenated by the presence of the hydrogen gas (H 2), wherein hydrocarbons that are substantially free from oxygen are produced. - a pyrolysis step in which dry biomass (B d) is indirectly heated to a temperature of about 350-500 °C in an inert environment, wherein a pyrolysis product and char is produced; - a pyrolysis separator step in which the char is separated from the pyrolysis product, - a gasification step, in which the separated char is indirectly heated to a temperature of about 900-1300 °C in an environment containing water steam (W st), but substantially free from oxygen and halogens as to reduce said char to produce a synthesis gas (S h), - a step of cooling and refining the produced synthesis gas (S h) so as to produce a purified synthesis gas (S p) comprising mainly carbon monoxide and hydrogen, - a gas separator step in which said hydrogen gas (H 2) is separated from the purified synthesis gas (S p),
Method for producing magnet cores consisting of a magnetically soft iron-based alloy, wherein at least 50% of the alloy structure are represented by finely crystalline particles with an average particle size of 100 nm or less, the method comprising the following steps: a) the provision of an alloy melt; b) the production of an amorphous alloy strip from the alloy melt using rapid solidification technology; c) the winding of the amorphous strip to produce amorphous magnet cores; d) the continuous heat treatment of the unstacked amorphous magnet cores to produce nanocrystalline magnet cores, characterised in that the heat treatment of the unstacked amorphous magnet cores is performed on heat sinks having a high thermal capacity and a high thermal conductivity.
A control system for a tiltrotor aircraft, comprising: at least one sensor configured to detect destabilizing hub shear indicative of whirl motion in a rotor system when the tiltrotor aircraft experiences chordwise airflow along a static thrust axis of the rotor system during operation of the tiltrotor aircraft in a forward-flight airplane mode; and a pilot control subsystem operatively coupled to the sensor and configured to receive data related to the detected destabilizing hub shear from the at least one sensor and adjust a pitch of the rotor blades of the rotor system in response to the measured hub shear indicating whirl motion in the rotor system. at least one sensor configured to detect destabilizing hub shear indicative of whirl motion in a rotor system when the tiltrotor aircraft experiences chordwise airflow along a static thrust axis of the rotor system during operation of the tiltrotor aircraft in a forward-flight airplane mode; and a pilot control subsystem operatively coupled to the sensor and configured to receive data related to the detected destabilizing hub shear from the at least one sensor and adjust a pitch of the rotor blades of the rotor system in response to the measured hub shear indicating whirl motion in the rotor system.