mhurhangee/patent-ind-claim-en huggingface dataset:
Method for liquid condition assessment in a liquid lubrication system for a work system operable in at least two different operation modes, wherein said liquid condition assessment comprises - measuring monitored liquid condition data , - determining a current operating modus of said work system, - based on said current operating modus selecting a corresponding mathematical model (601, 601', ... 601 N ) from a list of at least two mathematical models, - modelling corresponding simulated liquid condition data based on said mathematical model, - assessing the liquid condition by comparing the monitored liquid condition data with said simulated liquid condition data thereby providing a significantly normal distributed data set for said liquid condition assessment. - measuring monitored liquid condition data , - determining a current operating modus of said work system, - based on said current operating modus selecting a corresponding mathematical model (601, 601', ... 601 N ) from a list of at least two mathematical models, - modelling corresponding simulated liquid condition data based on said mathematical model, - assessing the liquid condition by comparing the monitored liquid condition data with said simulated liquid condition data thereby providing a significantly normal distributed data set for said liquid condition assessment.
An engine device for a work vehicle, the engine device configured to include a first case for removing particulate matter in exhaust gas of an engine and a second case for removing nitrogen oxides in the exhaust gas of the engine, and configured to connect the first case to the second case via a urea mixing pipe , comprising: that the engine, the first case , and the second case are integrally adhered, and the engine, the first case , and the second case are configured to be integrally vibrated in a swingable manner, that the first case is formed in such a manner as to be divided into an exhaust intake side case and an exhaust discharge side case , and the exhaust discharge side case is configured to be separable in a state where the exhaust intake side case is supported on the side of the engine, and characterized in that an exhaust outlet pipe is extended in the direction of the cylindrical axial line of the first case on an outer side of the exhaust discharge side case and the exhaust gas outlet side of the exhaust outlet pipe is extended in the direction intersecting with the cylindrical axial line of the first case . that the engine, the first case , and the second case are integrally adhered, and the engine, the first case , and the second case are configured to be integrally vibrated in a swingable manner, that the first case is formed in such a manner as to be divided into an exhaust intake side case and an exhaust discharge side case , and the exhaust discharge side case is configured to be separable in a state where the exhaust intake side case is supported on the side of the engine, and characterized in that an exhaust outlet pipe is extended in the direction of the cylindrical axial line of the first case on an outer side of the exhaust discharge side case and the exhaust gas outlet side of the exhaust outlet pipe is extended in the direction intersecting with the cylindrical axial line of the first case .
A bumper beam of a sheet metal formed to a closed hollow structure comprising a first side wall and a second side wall , wherein the sheet metal comprises a first longitudinal side and a second longitudinal side , wherein the sheet metal is formed such that the first longitudinal side is formed to a horizontal member located inside the closed hollow structure and such that the second side wall forms a recess into which the first longitudinal side extends, wherein the first longitudinal side and the recess are configured to form a locking of the horizontal member when the bumper beam is deformed due to an impact, wherein the second longitudinal side is welded to the closed hollow structure , characterized in that , in the recess , the first longitudinal side is unwelded to the second side wall . wherein the sheet metal comprises a first longitudinal side and a second longitudinal side , wherein the sheet metal is formed such that the first longitudinal side is formed to a horizontal member located inside the closed hollow structure and such that the second side wall forms a recess into which the first longitudinal side extends, wherein the first longitudinal side and the recess are configured to form a locking of the horizontal member when the bumper beam is deformed due to an impact, wherein the second longitudinal side is welded to the closed hollow structure , characterized in that , in the recess , the first longitudinal side is unwelded to the second side wall .
An austenitic stainless alloy consisting in weight%: C less than 0.03; Si more than 0.01 to less than 1.0; Mn 0.01 to 1.1 wt%.; Cr 26.0 to 30.0; Ni 29.0 to 37.0; Mo 6.1 to 7.1; N 0.26 to 0.36; P less than or equal to 0.04 S less than or equal to 0.03; Cu 0.001 to 0.4 wt%; optionally one or more of the following elements selected from the group of Al, V, Nb, Ti, O, Zr, Hf, Ta, Mg, Pb, Co, Bi, Ca, La, Ce, Y and B in a total content of less than or equal to 1.0 wt% balance Fe and unavoidable impurities. C less than 0.03; Si more than 0.01 to less than 1.0; Mn 0.01 to 1.1 wt%.; Cr 26.0 to 30.0; Ni 29.0 to 37.0; Mo 6.1 to 7.1; N 0.26 to 0.36; P less than or equal to 0.04 S less than or equal to 0.03; Cu 0.001 to 0.4 wt%;
Method for the separation of tall oil products (soap products) from a black liquor comprising boiling liquid that has been drained off, said boiling liquid having been produced in a kraft mill chip digester (K), where said boiling liquid comprises a fibrous cellulose material in a mixture with said black liquor and tall oil products, where the boiling liquid is mechanically separated in a separation unit (S) for the production of a fibrous cellulose material and the mixture of black liquor and tall oil products and where the mixture of black liquor is adapted to a mixed black liquor by addition of intermediate black liquor and brought to a separation tank (SE) that employs a gravity separation, being adapted for being emptied of the collected and concentrated tall oil products in a discontinuous manner, said tall oil products becoming, through flotation, positioned above and resting on a fraction of mixed black liquor, and where the mentioned concentrated tall oil products are brought to a centrifugal separator (CS), where the said tall oil products and the mixed black liquor contained therein is brought to the inlet of said centrifugal separator, said centrifugal separator being adapted to, through generation of centrifugal forces, allowing the concentration of tall oil products so that these are present in a solid structure, characterized by that the separation tank (SE) is adapted to, by addition of mixed black liquor, allow the elevation of concentrated tall oil products, which by said elevation flows through a skimmer to a mixing tank (BE), by that the solid structure has a solid form that is too hard to be pumped in a simple manner, that this solid form is adapted to be diluted with water to the extent that it can be pumped, that the thus diluted tall oil products are pumped to a homogenization tank (H), by that the said concentrated tall oil products are brought from the separation tank (SE) to the mixing tank (BE) before they, through a pumping unit, are pumped to the centrifuge separator (CS), and by that a proportion of raw tall oil of 50 to 70 wt % of the tall oil products (the soap) is chosen as a mixture of the tall oil products and mixed black liquor downstream of the centrifugal separator (CS).
A co-dispersion comprising: a solvent; at least one polymeric dispersant; and at least two types of graphenic carbon particles co-dispersed in the solvent and the polymeric dispersant, obtained by dispersing together the different types of graphenic carbon particles in the solvent containing the polymeric dispersant as opposed to mixing together separate dispersions prepared by dispersing the different types of graphenic carbon particles separately in a medium, wherein the graphenic carbon particles are carbon particles having structures comprising one or more layers of one-atom-thick planar sheets of sp 2 -bonded carbon atoms that are densely packed in a honeycomb crystal lattice; and wherein the polymeric pigment dispersant has a polymer chain structure represented by the following general formula (I), Φ-(G) p -(W) q -(Y) s T (I) wherein G is a residue of at least one radically polymerizable ethylenically unsaturated monomer; W and Y are residues of at least one radically polymerizable ethylenically unsaturated monomer with W and Y being different from one another; Y is optional; Φ is a hydrophobic residue of or derived from an initiator and is free of the radically transferable group; T is or is derived from the radically transferable group of the initiator; p, q and s represent average numbers of residues occurring in a block of residues; and p, q and s are each individually selected such that the polymeric dispersant has a number average molecular weight of at least 250. a solvent; at least one polymeric dispersant; and at least two types of graphenic carbon particles co-dispersed in the solvent and the polymeric dispersant, obtained by dispersing together the different types of graphenic carbon particles in the solvent containing the polymeric dispersant as opposed to mixing together separate dispersions prepared by dispersing the different types of graphenic carbon particles separately in a medium, wherein the graphenic carbon particles are carbon particles having structures comprising one or more layers of one-atom-thick planar sheets of sp 2 -bonded carbon atoms that are densely packed in a honeycomb crystal lattice; and wherein the polymeric pigment dispersant has a polymer chain structure represented by the following general formula (I), Φ-(G) p -(W) q -(Y) s T (I) wherein G is a residue of at least one radically polymerizable ethylenically unsaturated monomer; W and Y are residues of at least one radically polymerizable ethylenically unsaturated monomer with W and Y being different from one another; Y is optional; Φ is a hydrophobic residue of or derived from an initiator and is free of the radically transferable group; T is or is derived from the radically transferable group of the initiator; p, q and s represent average numbers of residues occurring in a block of residues; and p, q and s are each individually selected such that the polymeric dispersant has a number average molecular weight of at least 250.
Disposable filter capsule for a filtration device, comprising a housing , which has an inflow connection for a fluid to be filtered and an outflow connection for filtrate, and at least two filter means, wherein the filter means are connected in series, wherein all the components of the disposable filter capsule are made of sterilizable materials, in particular gamma-sterilizable materials, wherein the filter means are configured as filter cartridges, each having a hollow core area , which is surrounded by a pleated filter medium , and an outer area, which is formed between the pleated filter medium and the housing , and wherein the disposable filter capsule is a filter capsule for liquid, comprising a hydrophilic filter material, characterized in that the housing is a single and complete outer housing, which surrounds all the components of the disposable filter capsule , wherein the filter means are fixedly installed in the same housing and form with the latter an inseparable structural unit, wherein the inflow connection is in direct flow connection with the outer area of a first filter means and the outflow connection is in direct flow connection with the core area of a second filter means , and wherein the outer areas of the filter means are fluidically separated from each other by a barrier . a housing , which has an inflow connection for a fluid to be filtered and an outflow connection for filtrate, and at least two filter means, wherein the filter means are connected in series, wherein all the components of the disposable filter capsule are made of sterilizable materials, in particular gamma-sterilizable materials, wherein the filter means are configured as filter cartridges, each having a hollow core area , which is surrounded by a pleated filter medium , and an outer area, which is formed between the pleated filter medium and the housing , and wherein the disposable filter capsule is a filter capsule for liquid, comprising a hydrophilic filter material, characterized in that the housing is a single and complete outer housing, which surrounds all the components of the disposable filter capsule , wherein the filter means are fixedly installed in the same housing and form with the latter an inseparable structural unit, wherein the inflow connection is in direct flow connection with the outer area of a first filter means and the outflow connection is in direct flow connection with the core area of a second filter means , and wherein the outer areas of the filter means are fluidically separated from each other by a barrier .
A surgical bur comprising: a plurality of primary flutes comprising (i) first clearance surfaces , and (ii) first rake surfaces with first cutting edges , wherein the plurality of primary flutes extend from a proximal end of the surgical bur to a distal end of the surgical bur; and a plurality of auxiliary flutes comprising (i) second clearance surfaces , and (ii) second rake surfaces with second cutting edges , wherein at least one of the plurality of auxiliary flutes is located between a pair of adjacent ones of the plurality of primary flutes; characterized in that the plurality of auxiliary flutes are localized in distal regions, or are centrally localized and extending from distal regions to proximal regions of the surgical bur. a plurality of primary flutes comprising (i) first clearance surfaces , and (ii) first rake surfaces with first cutting edges , wherein the plurality of primary flutes extend from a proximal end of the surgical bur to a distal end of the surgical bur; and a plurality of auxiliary flutes comprising (i) second clearance surfaces , and (ii) second rake surfaces with second cutting edges , wherein at least one of the plurality of auxiliary flutes is located between a pair of adjacent ones of the plurality of primary flutes; characterized in that the plurality of auxiliary flutes are localized in distal regions, or are centrally localized and extending from distal regions to proximal regions of the surgical bur.
An apparatus (100;400) comprising: a driver (103;402) having pull-up impedance legs, wherein a number of active pull-up impedance legs is to determine a pull-up output impedance of the driver (103;402); further comprising a detector (102a;403) coupled to an output of the driver (103;402), wherein the detector (102a;403) is to receive a multiphase clock, the detector (102a;403) is to sample data at the output at least two clock edges separated by a delay, the detector (102a;403) to compare the sampled data with a first threshold voltage and a second threshold voltage, wherein the first and second threshold voltages are nearer to a logic high level of the data than to a logic low level of the data, or wherein the first and second threshold voltages are nearer to a logic low level of the data than to a logic high level of the data; decision logic (102c;405) coupled to the detector (102a;403), the decision logic (102c;405) to generate a code based on an indication from the detector (102a;403); and logic to receive the code from the decision logic (102c;405) and to further receive a base number of process, voltage, and temperature, PVT, compensated active number of pull-up impedance legs, and wherein the logic is to turn on or turn off one or more pull-up impedance legs over the base number to change the number of active pull-up impedance legs according to the code. a driver (103;402) having pull-up impedance legs, wherein a number of active pull-up impedance legs is to determine a pull-up output impedance of the driver (103;402); further comprising a detector (102a;403) coupled to an output of the driver (103;402), wherein the detector (102a;403) is to receive a multiphase clock, the detector (102a;403) is to sample data at the output at least two clock edges separated by a delay, the detector (102a;403) to compare the sampled data with a first threshold voltage and a second threshold voltage, wherein the first and second threshold voltages are nearer to a logic high level of the data than to a logic low level of the data, or wherein the first and second threshold voltages are nearer to a logic low level of the data than to a logic high level of the data; decision logic (102c;405) coupled to the detector (102a;403), the decision logic (102c;405) to generate a code based on an indication from the detector (102a;403); and logic to receive the code from the decision logic (102c;405) and to further receive a base number of process, voltage, and temperature, PVT, compensated active number of pull-up impedance legs, and wherein the logic is to turn on or turn off one or more pull-up impedance legs over the base number to change the number of active pull-up impedance legs according to the code.
A glare visor for reducing ambient light intensity presented to a wearer viewing a head up display employing display light including a given wavelength(s) of light, the visor including: a visor body comprising optically transparent material which is partially absorbing to light of visible optical wavelengths thereby to reduce the intensity of ambient light transmitted therethrough to the wearer; a transparent first optical coating formed upon a surface of the visor body intended to face away from the wearer in use which is partially transmissive to said light of visible optical wavelengths amongst which it is preferentially transmissive to light of a first sub-range of wavelengths for including therein given wavelength(s) of display light thereby to permit an enhancement of contrast between display light relative to ambient light; and a transparent second optical coating formed upon a surface of the visor body, intended to face towards the wearer in use, which is substantially transmissive of said light of visible optical wavelengths amongst which it is preferentially reflective of a second sub-range of wavelengths of light encompassing head mounted display light thereby to provide a projection display surface in respect of the second sub-range of light; wherein the first sub-range of wavelengths includes or overlaps the second sub-range. a visor body comprising optically transparent material which is partially absorbing to light of visible optical wavelengths thereby to reduce the intensity of ambient light transmitted therethrough to the wearer; a transparent first optical coating formed upon a surface of the visor body intended to face away from the wearer in use which is partially transmissive to said light of visible optical wavelengths amongst which it is preferentially transmissive to light of a first sub-range of wavelengths for including therein given wavelength(s) of display light thereby to permit an enhancement of contrast between display light relative to ambient light; and a transparent second optical coating formed upon a surface of the visor body, intended to face towards the wearer in use, which is substantially transmissive of said light of visible optical wavelengths amongst which it is preferentially reflective of a second sub-range of wavelengths of light encompassing head mounted display light thereby to provide a projection display surface in respect of the second sub-range of light; wherein the first sub-range of wavelengths includes or overlaps the second sub-range.
A cardiac pump comprising: a cardiac pump housing having a blood inlet that is offset from a longitudinal axis of the cardiac pump housing, the blood inlet being configured to flow blood radially across a contact bearing interface of a plain bearing assembly of the cardiac pump.
A spring , comprising a mounting bracket and a contact part that are successively arranged in a first direction, wherein the contact part is connected to the mounting bracket by using four elastic limiting arms , wherein the four elastic limiting arms comprise a first elastic limiting arm and a second elastic limiting arm that are oppositely disposed, and a third elastic limiting arm and a fourth elastic limiting arm that are oppositely disposed, and the four elastic limiting arms are disposed at an even interval on one end that is of the contact part and that is near the mounting bracket , wherein each one of the four elastic limiting arms is arranged between the contact part and the mounting bracket, with one end of each arm connected to the contact part and another end of each arm connected to the mounting bracket ; wherein two ends of the first elastic limiting arm and/or the second elastic limiting arm are respectively fixedly connected to the contact part and the mounting bracket , the third elastic limiting arm and the fourth elastic limiting arm extend from one end that is of the contact part and that is near the mounting bracket , the spring is characterized in that wing parts are disposed in a direction in which the third elastic limiting arm and the fourth elastic limiting arm extend, the wing parts are fixed at the mounting bracket , tail ends of the third elastic limiting arm and the fourth elastic limiting arm press against inner side walls of the wing parts , and when a fitting component is inserted into the spring and is elastically connected to the contact part , the tail ends of the third elastic limiting arm and the fourth elastic limiting arm can slide along the inner side walls of the wing parts in a direction of approaching the mounting bracket .