mhurhangee/ep-ind-claims huggingface dataset:
A composition for preparing a wood plastic composite article, said composition comprising: 15 weight % to 70 weight % of (a) a lignocellulosic-based filler; 29.5 weight % to 84.5 weight % of (b) an ethylene-based polymer; 0.5 weight % to 6 weight % of (c) a polydiorganosiloxane of unit formula: (R 2 R'SiO 1/2) a (R 3 SiO 1/2) b (R 2 SiO 2/2) c (RR'SiO 2/2) d, where each R is an independently selected monovalent hydrocarbon group of 1 to 18 carbon atoms that is free of aliphatic unsaturation, each R' is an independently selected alkenyl group of 2 to 18 carbon atoms, subscript a is 0 to 2, subscript b is 0 to 2, a quantity (a + b) = 2, subscript c ≥ 0, subscript d ≥ 0, a quantity (a + d) ≥ 1, and a quantity (a + b + c + d) is sufficient to give the polydiorganosiloxane a viscosity of 2,000 mPa·s to 60,000 mPa·s at 25°C measured at 0.1 to 50 RPM on a Brookfield DV-III cone & plate viscometer with #CP-52 spindle; and 0 to 4 weight % of (d) a maleated ethylene-based polymer; each based on combined weights of starting materials (a), (b), (c), and (d) in said composition. 15 weight % to 70 weight % of (a) a lignocellulosic-based filler; 29.5 weight % to 84.5 weight % of (b) an ethylene-based polymer; 0.5 weight % to 6 weight % of (c) a polydiorganosiloxane of unit formula: (R 2 R'SiO 1/2) a (R 3 SiO 1/2) b (R 2 SiO 2/2) c (RR'SiO 2/2) d, where each R is an independently selected monovalent hydrocarbon group of 1 to 18 carbon atoms that is free of aliphatic unsaturation, each R' is an independently selected alkenyl group of 2 to 18 carbon atoms, subscript a is 0 to 2, subscript b is 0 to 2, a quantity (a + b) = 2, subscript c ≥ 0, subscript d ≥ 0, a quantity (a + d) ≥ 1, and a quantity (a + b + c + d) is sufficient to give the polydiorganosiloxane a viscosity of 2,000 mPa·s to 60,000 mPa·s at 25°C measured at 0.1 to 50 RPM on a Brookfield DV-III cone & plate viscometer with #CP-52 spindle; and 0 to 4 weight % of (d) a maleated ethylene-based polymer; each based on combined weights of starting materials (a), (b), (c), and (d) in said composition.
A supporting structure made of thick plates for a gear mechanism, characterised in that the thick plates are embodied as an approximately annular partial plate, a rectangular frame and two brackets (16, 18), the approximately annular partial plate and the rectangular frame being arranged perpendicular to each other and being connected to one another via the brackets (16, 18), with substantially rectangular continuous cutouts (28, 30) being formed on lateral protuberances (42, 44) of the annular partial plate and in the rectangular frame, in which cutouts corresponding pegs of the brackets (16, 18) partially engage, the continuous cutouts (28, 30) being deeper than the pegs are long, the pegs being formed as cuboid protuberances in sides of the brackets, the free ends of the pegs in the continuous cutouts (28, 30) being welded to the thick plate in that a weld seam is formed along an edge of the free end which is visible from outside, the frame being welded to the annular partial plate around the respective peg.
Cushion for respiratory mask, having a three-dimensional shape with a central passage for receiving at least a part of the nose and the mouth of a user, said cushion comprising at least a nasal bridge region, a chin region and two cheek regions, which come into contact with the nasal bridge region, the cheek regions and the chin region of the user, respectively, when the cushion is positioned on the user's face, said cushion further comprising an inner membrane and an outer membrane, said inner and outer membranes (12, 13) being superimposed so that the outer membrane covers the inner membrane and is in direct contact with the face of the user, said inner and outer membranes (12, 13) being made of a flexible material, the outer membrane having, in the nasal bridge region of the cushion, a first thickness that is less than the second thickness of said outer membrane in the chin region, and the inner membrane having, in the nasal bridge region of the cushion, a third thickness that is more than the fourth thickness of said inner membrane in the chin region, characterized in that the third thickness is at least 0,8 mm and the fourth thickness is less than 0,8 mm.
Hospital and/or care bed with at least one side rail arranged on a longitudinal side of the bed, wherein the side rail comprises at least one cross-bar which via a slide block can be guided at least at one of its ends by means of guide within and relative to an upright (40, 60), wherein the upright (40, 60) has a section designated as a pivoting upright which can be brought into a raised position and into a pivoted down inactive position in which its longitudinal axis is the longitudinal direction of the bed, characterised in that the at least one cross-bar comprise, aligned in its bed longitudinal direction, an extension which lines in front of the upright (40, 60) in the transverse direction of the bed and/or the at least one cross-bar has a section which in the transverse direction of the bed lies at least partially before the pivoting upright when the latter is in its inactive position.
A work vehicle, comprising: a front body and a rear body; a lift arm rotatably linked to the front body of the work vehicle so as to be allowed to swing along an up/down direction; an operation lever that can be operated within a range between a raising operation end position and a lowering operation end position, and is operated to raise and lower the lift arm; an up detent mechanism having a holding function for holding the operation lever at the raising operation end position once the operation lever is operated to the raising operation end position; and a down detent mechanism having a holding function for holding the operation lever at the lowering operation end position once the operation lever is operated to the lowering operation end position, the holding function of the up detent mechanism and the holding function of the down detent mechanism being configured to be disengaged when an angle of the lift arm with respect to the front body becomes greater than a predetermined upper limit (α), characterized in that the work vehicle further comprises: an arm angle sensor that detects the angle of the lift arm; and a control unit that disengages the holding function of the up detent mechanism and the holding function of the down detent mechanism over a first predetermined time length (Δt) once the angle detected by the arm angle sensor becomes greater than the predetermined upper limit (α) and re-engages the holding function of the down detent mechanism when the first predetermined time length (Δt) elapses. a front body and a rear body; a lift arm rotatably linked to the front body of the work vehicle so as to be allowed to swing along an up/down direction; an operation lever that can be operated within a range between a raising operation end position and a lowering operation end position, and is operated to raise and lower the lift arm; an up detent mechanism having a holding function for holding the operation lever at the raising operation end position once the operation lever is operated to the raising operation end position; and a down detent mechanism having a holding function for holding the operation lever at the lowering operation end position once the operation lever is operated to the lowering operation end position, the holding function of the up detent mechanism and the holding function of the down detent mechanism being configured to be disengaged when an angle of the lift arm with respect to the front body becomes greater than a predetermined upper limit (α), an arm angle sensor that detects the angle of the lift arm; and a control unit that disengages the holding function of the up detent mechanism and the holding function of the down detent mechanism over a first predetermined time length (Δt) once the angle detected by the arm angle sensor becomes greater than the predetermined upper limit (α) and re-engages the holding function of the down detent mechanism when the first predetermined time length (Δt) elapses.
A method for providing Precise Point Positioning - Integer Ambiguity Resolution, PPP-IAR, corrections for a global navigation satellite system, GNSS, the method comprising: calculating PPP-IAR corrections based on pseudo range system observations (P i,a) and carrier phase system observations ( Φ i,a) acquired from a plurality of satellites over multiple epochs by one or more reference stations a with a known location, using a functional model, the functional model being defined as a relation between an observation vector comprising the pseudo range and carrier phase system observations ( P i,a, Φ i,a) at the reference station a, and a state vector comprising a zenith tropospheric delay term T a, a clock bias term t a, an ionospheric delay term I a, and a set of hardware delay terms A, characterized in that the functional model is implemented to include in the hardware delay terms A a lumped contribution from satellite and reference station hardware delays, and wherein the PPP-IAR corrections comprise the set of hardware delay terms A. calculating PPP-IAR corrections based on pseudo range system observations (P i,a) and carrier phase system observations ( Φ i,a) acquired from a plurality of satellites over multiple epochs by one or more reference stations a with a known location, using a functional model, the functional model being defined as a relation between an observation vector comprising the pseudo range and carrier phase system observations ( P i,a, Φ i,a) at the reference station a, and a state vector comprising a zenith tropospheric delay term T a, a clock bias term t a, an ionospheric delay term I a, and a set of hardware delay terms A, characterized in that the functional model is implemented to include in the hardware delay terms A a lumped contribution from satellite and reference station hardware delays, and wherein the PPP-IAR corrections comprise the set of hardware delay terms A.
A system comprising a main battery and an auxiliary battery charging apparatus for charging an auxiliary battery from the main battery, the main battery having at least a first module comprising a plurality of first cells and a second module comprising a plurality of second cells, the main battery further comprising a first module controller for monitoring said first cells and a second module controller for monitoring said second cells, the auxiliary battery charging apparatus configured to receive data from the first module controller and the second module controller, the apparatus comprising: an intermediate storage device for connection to the auxiliary battery; a first switch unit for selectively connecting one or more of the first cells to the intermediate storage device and a second switch unit for selectively connecting one or more of said second cells to the intermediate storage device; a charging control unit having an electronic processor configured to receive a first balance control signal for identifying one or more of said first cells having a relatively low depth-of-discharge from the first module controller and a second balance control signal for identifying one or more of said second cells of the second module having a relatively low depth-of-discharge from the second module controller; wherein, in dependence on the first balance control signal, the electronic processor is configured to output a first switch unit control signal to control said first switch unit to connect the identified one or more first cell to the intermediate storage device to charge the auxiliary battery and in dependence on the second balance control signal, the electronic processor is configured to output a second switch unit control signal to control said second switch unit to connect the identified one or more second cell to the intermediate storage device. an intermediate storage device for connection to the auxiliary battery; a first switch unit for selectively connecting one or more of the first cells to the intermediate storage device and a second switch unit for selectively connecting one or more of said second cells to the intermediate storage device; a charging control unit having an electronic processor configured to receive a first balance control signal for identifying one or more of said first cells having a relatively low depth-of-discharge from the first module controller and a second balance control signal for identifying one or more of said second cells of the second module having a relatively low depth-of-discharge from the second module controller; wherein, in dependence on the first balance control signal, the electronic processor is configured to output a first switch unit control signal to control said first switch unit to connect the identified one or more first cell to the intermediate storage device to charge the auxiliary battery and in dependence on the second balance control signal, the electronic processor is configured to output a second switch unit control signal to control said second switch unit to connect the identified one or more second cell to the intermediate storage device.
A method for sealing a film on a tray, comprising a sealing of the film to the tray edges and a separation of the trays by cutting the film, wherein the film is initially fixed to a sealing apparatus arranged above, wherein the film is exposed to heated gas through the sealing apparatus and wherein the film is then guided towards the sealing apparatus and then sealed on the tray edges, characterized in that the film is exposed to heated gas in such a manner that the film is heated and simultaneously conducted away from the sealing apparatus with the gas, so that it adopts a bulbous form and is pre-stretched and lengthened accordingly.
A device (101, 201) for supporting a tablet computer, comprising: a barrel having a longitudinal axis and comprising an opening for receiving an edge of the tablet computer and securing means for securing the edge of the tablet computer, the securing means comprising at least one securing element for engaging a corner of the tablet computer; a housing; and means for rotatably mounting the barrel; wherein the barrel is rotatable about said longitudinal axis between a first position in which the opening is at least partially covered by the housing and a second position in which the opening is exposed to receive the tablet computer. a barrel having a longitudinal axis and comprising an opening for receiving an edge of the tablet computer and securing means for securing the edge of the tablet computer, the securing means comprising at least one securing element for engaging a corner of the tablet computer; a housing; and means for rotatably mounting the barrel; wherein the barrel is rotatable about said longitudinal axis between a first position in which the opening is at least partially covered by the housing and a second position in which the opening is exposed to receive the tablet computer.
An endoscope system comprising: a light source apparatus including: a semiconductor light source (20a-20d) for emitting light (Bn, G, R, Vn) to illuminate an object in a body cavity; and a measurement sensor (25, 120-122) for measuring a light amount of said emitted light; an endoscope including: an image sensor for imaging said object illuminated with said light to obtain a first color image signal of a color image; and a processing apparatus including: a light amount acquisition device for calculating an exposure amount based on said first color image signal and calculating a target light amount based on said exposure amount; a light source controller for setting a drive value (c) of said light source according to a comparison result between said light amount of said light from said measurement sensor and said target light amount from said light amount acquisition device; and a color converter (68, 74) for performing color conversion of said first color image signal into a second color image signal, and adjusting a setting of said color conversion according to said set drive value of said light source. a light source apparatus including: a semiconductor light source (20a-20d) for emitting light (Bn, G, R, Vn) to illuminate an object in a body cavity; and a measurement sensor (25, 120-122) for measuring a light amount of said emitted light; a semiconductor light source (20a-20d) for emitting light (Bn, G, R, Vn) to illuminate an object in a body cavity; and a measurement sensor (25, 120-122) for measuring a light amount of said emitted light; an endoscope including: an image sensor for imaging said object illuminated with said light to obtain a first color image signal of a color image; and an image sensor for imaging said object illuminated with said light to obtain a first color image signal of a color image; and a processing apparatus including: a light amount acquisition device for calculating an exposure amount based on said first color image signal and calculating a target light amount based on said exposure amount; a light source controller for setting a drive value (c) of said light source according to a comparison result between said light amount of said light from said measurement sensor and said target light amount from said light amount acquisition device; and a light amount acquisition device for calculating an exposure amount based on said first color image signal and calculating a target light amount based on said exposure amount; a light source controller for setting a drive value (c) of said light source according to a comparison result between said light amount of said light from said measurement sensor and said target light amount from said light amount acquisition device; and a color converter (68, 74) for performing color conversion of said first color image signal into a second color image signal, and adjusting a setting of said color conversion according to said set drive value of said light source.
A hemolytic reagent comprising a nonionic surfactant represented by formula below: R 1 -R 2 -(CH 2 CH 2 O) n -H where R 1 represents an alkyl group, an alkenyl group, or an alkynyl group having 8 or more and 25 or less carbon atoms, R 2 represents an oxygen atom, or a group represented by formula below: where n is 23 or larger and 25 or smaller, or 30, with n of 23 or larger and 25 or smaller, a concentration of the nonionic surfactant is 1700 ppm or higher and 2300 ppm or lower, and with n of 30, the concentration of the nonionic surfactant is 1900 ppm or higher and 2300 ppm or lower. where R 1 represents an alkyl group, an alkenyl group, or an alkynyl group having 8 or more and 25 or less carbon atoms, R 2 represents an oxygen atom, or a group represented by formula below: where n is 23 or larger and 25 or smaller, or 30, with n of 23 or larger and 25 or smaller, a concentration of the nonionic surfactant is 1700 ppm or higher and 2300 ppm or lower, and with n of 30, the concentration of the nonionic surfactant is 1900 ppm or higher and 2300 ppm or lower.
Implantable quadripolar electrode for sequential neurostimulation of the phrenic nerve, being constituted of a matrix provided with two branches and each consisting of a hook (111,121) designed to come in contact with the phrenic nerve without totally encircling it, and an extension (112, 122), or strip, designed to cross the corresponding incision arranged in the pleura and fix the latter on the pericardium; wherein each hook (111, 121) has an opening (113, 123) allowing the phrenic nerve to pass; wherein the hooks (111, 121) are connected by a bridge designed to keep them at a fixed distance from each other in the longitudinal direction of said phrenic nerve and to allow, through its elasticity, the branches and to rotate relative to one another for positioning the hooks and around the phrenic nerve via their respective openings (113, 123); and wherein said hooks and are each provided with two contactors (14, 15) and (16, 17) arranged symmetrically around the axis of said phrenic nerve, in contact with it, and designed to be supplied with sequential neurostimulation electrical current by means of a bundle of four cables (34, 35, 36, 37).
An optical fiber comprising: (i) a central core region having outer radius r 1 and relative refractive index Δ 1 (ii) a cladding (2,3,4) immediately surrounding the central core region, the cladding comprising: (a) a first cladding region having an outer radius 25 μm > r 2 > 16 μm and relative refractive index Δ 2, wherein the ratio of r 1 /r 2 is larger than 0.24; (b) a second cladding region immediately surrounding the first cladding region and having a relative refractive index Δ 3 and an outer radius r 3, wherein Δ 1 > Δ 3 > Δ 2, wherein the second cladding region comprises at least 1.2 wt% chlorine (Cl) and wherein the difference between Δ 3 and Δ 2 is greater than 0.12%, and Δ 3 > 0.12%; and said fiber exhibits a mode field diameter MFD>9 μm at a 1310 nm wavelength; and bend loss at 1550 nm for a 15 mm diameter mandrel of less than 0.5 dB/turn. characterised in that the cladding futher comprises: (c) a third cladding region immediately surrounding the second cladding region, the third region having relative a refractive index Δ 4, wherein Δ 3 > Δ 4, and wherein the difference between Δ 3 and Δ 4 is greater than 0.1%, and -0.02%<Δ 4 <0.02%. (i) a central core region having outer radius r 1 and relative refractive index Δ 1 (ii) a cladding (2,3,4) immediately surrounding the central core region, the cladding comprising: (a) a first cladding region having an outer radius 25 μm > r 2 > 16 μm and relative refractive index Δ 2, wherein the ratio of r 1 /r 2 is larger than 0.24; (b) a second cladding region immediately surrounding the first cladding region and having a relative refractive index Δ 3 and an outer radius r 3, wherein Δ 1 > Δ 3 > Δ 2, wherein the second cladding region comprises at least 1.2 wt% chlorine (Cl) and wherein the difference between Δ 3 and Δ 2 is greater than 0.12%, and Δ 3 > 0.12%; and said fiber exhibits a mode field diameter MFD>9 μm at a 1310 nm wavelength; and bend loss at 1550 nm for a 15 mm diameter mandrel of less than 0.5 dB/turn. characterised in that the cladding futher comprises: (c) a third cladding region immediately surrounding the second cladding region, the third region having relative a refractive index Δ 4, wherein Δ 3 > Δ 4, and wherein the difference between Δ 3 and Δ 4 is greater than 0.1%, and -0.02%<Δ 4 <0.02%. (a) a first cladding region having an outer radius 25 μm > r 2 > 16 μm and relative refractive index Δ 2, wherein the ratio of r 1 /r 2 is larger than 0.24; (b) a second cladding region immediately surrounding the first cladding region and having a relative refractive index Δ 3 and an outer radius r 3, wherein Δ 1 > Δ 3 > Δ 2, wherein the second cladding region comprises at least 1.2 wt% chlorine (Cl) and wherein the difference between Δ 3 and Δ 2 is greater than 0.12%, and Δ 3 > 0.12%; and said fiber exhibits a mode field diameter MFD>9 μm at a 1310 nm wavelength; and bend loss at 1550 nm for a 15 mm diameter mandrel of less than 0.5 dB/turn. said fiber exhibits a mode field diameter MFD>9 μm at a 1310 nm wavelength; and bend loss at 1550 nm for a 15 mm diameter mandrel of less than 0.5 dB/turn.
Spacer device for spacing a frame comprising at least one frame bar to be secured by a fastener to a wall portion bounding a building opening, said spacer device comprising a first spacer element having a first support surface for supporting against said wall portion, a second spacer element having a second support surface for supporting against said frame bar, and adjusting and clamping device for adjusting the spacing between said first and second support surfaces (24, 28) and for applying a clamping pressure between the support surfaces (24, 28), and an opening on the support surfaces (24, 28) for passage of the fastener by means of which the first bar is to be secured to the wall portion, characterized in that the adjusting and clamping device comprises a wedge element adjustable in its position between the spacer elements (22, 26).