mhurhangee/ep-ind-claims huggingface dataset:
Lubricating oil composition for automotive transmissions, characterised in that the lubricating oil composition contains:, as a base oil, a GTL low-viscosity base oil, kinematic viscosity 2mm 2 /s to 5mm 2 /s at 100°C, in the amount of 60 to 93% by mass based on the total mass of the lubricating oil composition and a Group 1 high-viscosity base oil, kinematic viscosity 30mm 2 /s to 35mm 2 /s at 100°C, in the amount of 2 to 20% by mass based on the total mass of the lubricating oil composition, and in addition the content of the polymeric compound which constitutes the viscosity index improver is 0 to 1.0% by mass based on the total mass of the lubricating oil composition, the pour point is -50°C or below, the Brookfield viscosity at -40°C being not more than 10,000mPa·s, the EHD oil film thickness at 60°C and 3.0m/s is not less than 15% as a ratio of the oil film thickness of a polyalphaolefin, kinematic viscosity 4.0mm 2 /s at 100°C, measured under the same conditions, the kinematic viscosity at 100°C is 4mm 2 /s to 6mm 2 /s, the kinematic viscosity at 40°C is 20mm 2 /s to 30mm 2 /s and wherein the lubricating oil composition contains 0.10 to 0.20% by mass in terms of phosphorus content of a phosphorus-based additive, based on the total mass of the lubricating oil composition., as a base oil, a GTL low-viscosity base oil, kinematic viscosity 2mm 2 /s to 5mm 2 /s at 100°C, in the amount of 60 to 93% by mass based on the total mass of the lubricating oil composition and a Group 1 high-viscosity base oil, kinematic viscosity 30mm 2 /s to 35mm 2 /s at 100°C, in the amount of 2 to 20% by mass based on the total mass of the lubricating oil composition, and in addition the content of the polymeric compound which constitutes the viscosity index improver is 0 to 1.0% by mass based on the total mass of the lubricating oil composition, the pour point is -50°C or below, the Brookfield viscosity at -40°C being not more than 10,000mPa·s, the EHD oil film thickness at 60°C and 3.0m/s is not less than 15% as a ratio of the oil film thickness of a polyalphaolefin, kinematic viscosity 4.0mm 2 /s at 100°C, measured under the same conditions, the kinematic viscosity at 100°C is 4mm 2 /s to 6mm 2 /s, the kinematic viscosity at 40°C is 20mm 2 /s to 30mm 2 /s and wherein the lubricating oil composition contains 0.10 to 0.20% by mass in terms of phosphorus content of a phosphorus-based additive, based on the total mass of the lubricating oil composition.
Fastening device for at least one cable, having an edge clip part for attaching the fastening device to an edge of a base part, and having a holding device for at least one cable tie which surrounds at least one cable, wherein the holding device has fastening portions, characterized in that the fastening portions form a holder for the cable tie in three mutually orthogonal cable-tie orientation directions such that a cable tie is fastenable to the base part selectively in a manner oriented in one of the three cable-tie orientation directions, wherein a plurality of fastening portions are configured as a common holder part (32, 34, 36) and one holder part (32, 34, 36) has two fastening portions for attaching a cable tie in two orientation directions that extend orthogonally to one another.
Fastening unit for a hinge of doors, windows or similar components, which are each provided with a profile frame having a cavity, whereby the fastening unit having at least two individual plates (2, 3) expandable relatively to each other, which are having a rectangular design so that their width largely coincides with a recess of the profile frame forming the access to the cavity and they are insertable in the unspread condition from the front into this recess of the cavity of the profile frame and are spreadable relative one to each other and lockable in the spread state in the profile frame, characterized in that wherein the front single plate is provided with obliquely to its longitudinal extension extending oblong holes (5, 6), in which mating formed pins (7, 8) of the rear single plate engage, which are led in the oblong holes (5, 6), when the single plates (2, 3) will be moved relative one to each other and will be spread in the cavity across to their longitudinal extension, and that the fastening unit is provided with a third single plate with threaded bores (15a to 15d) for fastening screws of the hinge, which is insertable into the recess of the profile frame and can be fasted with screws (13, 14) on the both other single plates (2, 3).
A binder composition for an electrochemical device comprising: a polymer including a nitrile group-containing monomer unit and an alkylene structural unit; and a group 13 element, wherein the group 13 element is aluminum, and when an iodine value of the polymer, measured according to JIS K6235, is taken to be I, in units of g/100 g, and the concentration of the group 13 element, measured by ICP atomic emission spectroscopy (ICP-AES), is taken to be M, in units of ppm, a relationship formula: 0.1 ≤ M / I ≤ 150 is satisfied. the group 13 element is aluminum, and when an iodine value of the polymer, measured according to JIS K6235, is taken to be I, in units of g/100 g, and the concentration of the group 13 element, measured by ICP atomic emission spectroscopy (ICP-AES), is taken to be M, in units of ppm, a relationship formula: 0.1 ≤ M / I ≤ 150 is satisfied.
A recombinant adeno-associated viral (rAAV) particle for use in a method of delivering a rAAV to the central nervous system of a mammal, wherein the rAAV particle is administered to the striatum of the mammal by convection enhanced delivery, wherein the rAAV particle comprises a rAAV vector encoding a heterologous nucleic acid that is expressed in at least the occipital cortex and/or layer IV of the cerebral cortex and striatum of the mammal, wherein the rAAV particle comprises an AAV serotype 2 capsid, and wherein the rAAV particle is administered to at least one site in the caudate nucleus and two sites in the putamen in each hemisphere of the striatum.
A touch display device comprising: a display panel having disposed therein: a plurality of X-touch electrode lines (X-TEL), which extend in a first direction and which are configured to receive a touch driving signal transmitted from a plurality of X-touch lines (X-TL); and a plurality of Y-touch electrode lines (Y-TEL), which extend in a second direction and are configured to transmit a touch sensing signal through a plurality of Y-touch lines (Y-TL); and a touch driving circuit configured to supply the touch driving signal to the plurality of X-touch electrode lines, and configured to receive the touch sensing signal from the Y-touch electrode lines so as to sense a touch, wherein a plurality of overlapping areas in which at least some of the plurality of X-touch lines overlap at least some of the plurality of Y-touch lines are different from each other, and wherein a first overlapping area of the plurality of overlapping areas is associated with an X-touch line and a Y-touch line, the X-touch line being connected to an X-touch electrode line located in a non-square area among the plurality of X-touch electrode lines, the Y-touch line being connected to a Y-touch electrode line located in the non-square area among the plurality of Y-touch electrode lines, the first overlapping area being larger than other overlapping areas associated with other X-touch lines and other Y-touch lines. a display panel having disposed therein: a plurality of X-touch electrode lines (X-TEL), which extend in a first direction and which are configured to receive a touch driving signal transmitted from a plurality of X-touch lines (X-TL); and a plurality of Y-touch electrode lines (Y-TEL), which extend in a second direction and are configured to transmit a touch sensing signal through a plurality of Y-touch lines (Y-TL); and a plurality of X-touch electrode lines (X-TEL), which extend in a first direction and which are configured to receive a touch driving signal transmitted from a plurality of X-touch lines (X-TL); and a plurality of Y-touch electrode lines (Y-TEL), which extend in a second direction and are configured to transmit a touch sensing signal through a plurality of Y-touch lines (Y-TL); and a touch driving circuit configured to supply the touch driving signal to the plurality of X-touch electrode lines, and configured to receive the touch sensing signal from the Y-touch electrode lines so as to sense a touch, wherein a plurality of overlapping areas in which at least some of the plurality of X-touch lines overlap at least some of the plurality of Y-touch lines are different from each other, and wherein a first overlapping area of the plurality of overlapping areas is associated with an X-touch line and a Y-touch line, the X-touch line being connected to an X-touch electrode line located in a non-square area among the plurality of X-touch electrode lines, the Y-touch line being connected to a Y-touch electrode line located in the non-square area among the plurality of Y-touch electrode lines, the first overlapping area being larger than other overlapping areas associated with other X-touch lines and other Y-touch lines.
A storage container for at least one fluid medium, with an inner container in particular made of plastic for holding the fluid medium, wherein at least one pipe for loading or unloading the storage container with the fluid medium is connected at the upper end face and/or at the lower end face of the inner container, wherein an outer insulating jacket enveloping the inner container is provided, and wherein this outer insulating jacket exhibits several insulating segments adjoining or stacked in the longitudinal direction of the storage container, characterized in that a lower inner cover serving as an inner container base is placed on the lower end face of the inner container, and that an upper inner cover is placed on the upper end face of the inner container, and that the outer insulating jacket also envelops the lower, and preferably also the upper inner cover.
A high-strength hot-dip galvanized steel sheet having a tensile strength of 980 MPa or more and having a chemical composition comprising, in mass%: C: 0.050% to 0.130%; Si: 0.010% to 1.00%; Mn: 1.50% to 3.50%; P: 0.10% or less; S: 0.010% or less; N: 0.010% or less; O: 0.010% or less; sol. AI: 0.001% to 1.0%; Ti: 0.005% to 0.20%; B: 0.0005% to 0.010%; Cr + 2 × Mo: 0.10 to 1.50%; and a balance consisting of Fe and inevitable impurities, wherein the chemical composition optionally comprises, in place of a part of Fe, at least one of: V: 0.001% to 1.00%; Nb: 0.001% to 0.200%; Ni: 0.001% to 1.00%; Cu: 0.001% to 1.00%; Co: 0.001% to 1.00%; W: 0.001% to 1.00%; Sn: 0.001% to 1.00%; Sb: 0.001% to 0.50%; Ca: 0.0001% to 0.0100%; Mg: 0.0001% to 0.0100%; Ce: 0.0001% to 0.0100%; Zr: 0.0001% to 0.0100%; La: 0.0001% to 0.0100%; Hf: 0.0001% to 0.0100%; Bi: 0.0001% to 0.0100%; and misch metal: 0.0001% to 0.0100%; wherein a steel structure at a part in a thickness range from one eighth to three eighths around one fourth of a thickness of the steel sheet from a surface of the steel sheet comprises, in area%: ferrite: 1 to 50%; martensite: 20 to 70%; residual austenite: 0 to 5%; pearlite: 0 to 5%; MA and cementite having 0.2 μm or more grain size in total: 0 to 5%; and a balance in a form of bainite, a number density of the MA or cementite having 0.2 μm or more grain size and isolated in ferrite or bainite grains is 100 pcs/1000 μm 2 or less, and an average hardness of martensite is in a range from 330 Hv to 500 Hv, wherein the tensile strength, the area% of the steel structure, the number density of the MA or cementite, and the average hardness of martensite are measured in accordance with the description, respectively. C: 0.050% to 0.130%; Si: 0.010% to 1.00%; Mn: 1.50% to 3.50%; P: 0.10% or less; S: 0.010% or less; N: 0.010% or less; O: 0.010% or less; sol. AI: 0.001% to 1.0%; Ti: 0.005% to 0.20%; B: 0.0005% to 0.010%; Cr + 2 × Mo: 0.10 to 1.50%; and a balance consisting of Fe and inevitable impurities, V: 0.001% to 1.00%; Nb: 0.001% to 0.200%; Ni: 0.001% to 1.00%; Cu: 0.001% to 1.00%; Co: 0.001% to 1.00%; W: 0.001% to 1.00%; Sn: 0.001% to 1.00%; Sb: 0.001% to 0.50%; Ca: 0.0001% to 0.0100%; Mg: 0.0001% to 0.0100%; Ce: 0.0001% to 0.0100%; Zr: 0.0001% to 0.0100%; La: 0.0001% to 0.0100%; Hf: 0.0001% to 0.0100%; Bi: 0.0001% to 0.0100%; and misch metal: 0.0001% to 0.0100%; ferrite: 1 to 50%; martensite: 20 to 70%; residual austenite: 0 to 5%; pearlite: 0 to 5%; MA and cementite having 0.2 μm or more grain size in total: 0 to 5%; and a balance in a form of bainite, a number density of the MA or cementite having 0.2 μm or more grain size and isolated in ferrite or bainite grains is 100 pcs/1000 μm 2 or less, and an average hardness of martensite is in a range from 330 Hv to 500 Hv, wherein the tensile strength, the area% of the steel structure, the number density of the MA or cementite, and the average hardness of martensite are measured in accordance with the description, respectively.
A method for carrying out an integrity test on a flexible test container, wherein: - the test container is arranged in an analysis container that can be sealed fluid-tight, - an underpressure is provided in the interior of the sealed analysis container, - a test fluid is added to the test container arranged in the analysis container, - available test fluid is detected within the interior of the analysis container, - before the test fluid is added, an underpressure is provided in the test container arranged in the analysis container, the method is characterized in that the underpressure in the test container is formed to be lower than the underpressure in the interior of the sealed analysis container, and the difference in pressure between the underpressure in the test container and the underpressure in the interior of the sealed analysis container is more than 0 mbar, and is a maximum of 100 mbar. - the test container is arranged in an analysis container that can be sealed fluid-tight, - an underpressure is provided in the interior of the sealed analysis container, - a test fluid is added to the test container arranged in the analysis container, - available test fluid is detected within the interior of the analysis container, - before the test fluid is added, an underpressure is provided in the test container arranged in the analysis container,
A vascular delivery system, comprising: an implant having, at a proximal region, a hub defining a port having an inner cross-sectional dimension; a shaft extending through the hub, the shaft having (i) a tube defining a lumen and (ii) a collet having a plurality of extensions at a distal end of the tube, the collet being distal to the port, the collet having a flared state with a flared cross-sectional dimension and a relaxed state with a relaxed cross-sectional dimension, less than the flared cross-sectional dimension; a control wire extending through the lumen of the tube and through the collet and having an engagement portion, distal to at least a portion of the collet, with an engagement cross-sectional dimension, greater than the relaxed cross-sectional dimension, and being retractable relative to the collet, wherein proximal retraction of the engagement portion against the collet causes the collet to transition from the relaxed state to the flared state; wherein the collet is configured to remain distal to the port while in the flared state, wherein the flared cross-sectional dimension of the collet is greater than the inner cross-sectional dimension of the port. an implant having, at a proximal region, a hub defining a port having an inner cross-sectional dimension; a shaft extending through the hub, the shaft having (i) a tube defining a lumen and (ii) a collet having a plurality of extensions at a distal end of the tube, the collet being distal to the port, the collet having a flared state with a flared cross-sectional dimension and a relaxed state with a relaxed cross-sectional dimension, less than the flared cross-sectional dimension; a control wire extending through the lumen of the tube and through the collet and having an engagement portion, distal to at least a portion of the collet, with an engagement cross-sectional dimension, greater than the relaxed cross-sectional dimension, and being retractable relative to the collet, wherein proximal retraction of the engagement portion against the collet causes the collet to transition from the relaxed state to the flared state; wherein the collet is configured to remain distal to the port while in the flared state, wherein the flared cross-sectional dimension of the collet is greater than the inner cross-sectional dimension of the port.
A method of producing a tobacco composition for use in a tobacco product, the tobacco composition characterized by a reduced benzo[a]pyrene concentration, comprising: mixing an extracted pulp of a cured tobacco material having a first benzo[a]pyrene concentration with supercritical carbon dioxide to provide intimate contact between the extracted pulp and the supercritical carbon dioxide, wherein the pressure at which the mixing is conducted is about 10 MPa or greater; maintaining the intimate contact for a time and at a temperature sufficient to form a treated tobacco pulp exhibiting a second benzo[a]pyrene concentration lower than the first benzo[a]pyrene concentration; and separating the treated tobacco pulp from a residual supercritical carbon dioxide extract comprising components of the tobacco material that are soluble in the supercritical carbon dioxide. mixing an extracted pulp of a cured tobacco material having a first benzo[a]pyrene concentration with supercritical carbon dioxide to provide intimate contact between the extracted pulp and the supercritical carbon dioxide, wherein the pressure at which the mixing is conducted is about 10 MPa or greater; maintaining the intimate contact for a time and at a temperature sufficient to form a treated tobacco pulp exhibiting a second benzo[a]pyrene concentration lower than the first benzo[a]pyrene concentration; and separating the treated tobacco pulp from a residual supercritical carbon dioxide extract comprising components of the tobacco material that are soluble in the supercritical carbon dioxide.
A distributed feedback laser, DFB laser, comprising: a ground electrode layer located at the bottom of the DFB laser; a semiconductor substrate, an active layer, a grating layer, an upper covering layer and an electrode layer that are disposed on the ground electrode layer in sequence; a first electrical isolation layer, where the first electrical isolation layer is configured to divide the DFB laser into a laser region and a grating adjustment region; the laser region is configured to generate optical signals, wherein the optical signals comprise an optical signal with a wavelength corresponding to a "0" signal and an optical signal with a wavelength corresponding to a "1" signal; and the grating adjustment region is configured to adjust a wavelength of the grating adjustment region by controlling current of the grating adjustment region, so that the optical signal with the wavelength corresponding to the "1" signal of the laser region passes through the grating adjustment region, and the optical signal with the wavelength corresponding to the "0" signal of the laser region returns to the laser region. a ground electrode layer located at the bottom of the DFB laser; a semiconductor substrate, an active layer, a grating layer, an upper covering layer and an electrode layer that are disposed on the ground electrode layer in sequence; a first electrical isolation layer, where the first electrical isolation layer is configured to divide the DFB laser into a laser region and a grating adjustment region; the laser region is configured to generate optical signals, wherein the optical signals comprise an optical signal with a wavelength corresponding to a "0" signal and an optical signal with a wavelength corresponding to a "1" signal; and the grating adjustment region is configured to adjust a wavelength of the grating adjustment region by controlling current of the grating adjustment region, so that the optical signal with the wavelength corresponding to the "1" signal of the laser region passes through the grating adjustment region, and the optical signal with the wavelength corresponding to the "0" signal of the laser region returns to the laser region.
A method for use in a receiver, the method comprising: configuring the receiver to use multi-bit hybrid automatic repeat request, HARQ, feedback per transport block, TB; receiving a transmission comprising a TB that is composed of a plurality of code blocks, CBs, arranged in one or more code block groups, CBGs; sending HARQ ACK or NACK feedback for one or more of the one or more CBGs of the TB, at the first HARQ feedback occasion and based on a decoding status of the TB; receiving a retransmission comprising only a subset of CBs or only a subset of CBGs of the TB for which HARQ NACK feedback was sent; and characterised in determining a set of CBGs of the TB for which to send negative acknowledgement, NACK, feedback at a different HARQ feedback occasion based on at least a decoding time for unsuccessfully decoded information received from previous transmissions and retransmissions. configuring the receiver to use multi-bit hybrid automatic repeat request, HARQ, feedback per transport block, TB; receiving a transmission comprising a TB that is composed of a plurality of code blocks, CBs, arranged in one or more code block groups, CBGs; sending HARQ ACK or NACK feedback for one or more of the one or more CBGs of the TB, at the first HARQ feedback occasion and based on a decoding status of the TB; receiving a retransmission comprising only a subset of CBs or only a subset of CBGs of the TB for which HARQ NACK feedback was sent; and characterised in determining a set of CBGs of the TB for which to send negative acknowledgement, NACK, feedback at a different HARQ feedback occasion based on at least a decoding time for unsuccessfully decoded information received from previous transmissions and retransmissions.
A circuit for reducing power consumption in input ports of an integrated circuit, the circuit comprising: a plurality of receiver circuits of the integrated circuit for receiving input signals coupled to the integrated circuit; and a bias current generator coupled to the plurality of receiver circuits, the bias current generator comprising a current mirror and providing a bias voltage for each receiver circuit of the plurality of receiver circuits to mirror the current in the bias current generator in each of the receiver circuits, wherein each receiver of the plurality of receivers is coupled to receive the bias voltage. a plurality of receiver circuits of the integrated circuit for receiving input signals coupled to the integrated circuit; and a bias current generator coupled to the plurality of receiver circuits, the bias current generator comprising a current mirror and providing a bias voltage for each receiver circuit of the plurality of receiver circuits to mirror the current in the bias current generator in each of the receiver circuits, wherein each receiver of the plurality of receivers is coupled to receive the bias voltage.
Device for transferring sausage portions with a first transport device for transporting the sausage portions in their longitudinal direction, an ejection device for pushing the sausage portions from the first transport device to a second transport device, which is configured as drum or fan belt, characterized in that the first transport device has a lower and an upper circumferential transport means, between which the sausage portions are transported and in that the ejection device is configured such that it is movable to and fro between the first and second transport means (13, 14).