mhurhangee/ep-ind-claims huggingface dataset:
A flexible container comprising: A. a front panel, a rear panel, a first gusseted side panel and a second gusseted side panel, the gusseted side panels (18,20) adjoining the front panel and the rear panel along peripheral seals to form a chamber; B. each panel includes a bottom face (26a, 26b, 26c, 26d) comprising two opposing peripheral tapered seals (40a, 40b, 40c, 40d), each peripheral tapered seal extending from a respective peripheral seal, each peripheral tapered seal comprising an inner edge (29a, 29b, 29c, 29d), the peripheral tapered seals converging at a bottom seal area; C. the front panel bottom face comprises a first line defined by the inner Edge of the first peripheral tapered seal and a second line defined by the inner edge of the second peripheral tapered seal, the first line intersecting the second line at an apex point in the bottom seal area; said flexible container being characterised in that D. the front panel bottom face comprises a distal inner seal arc diverging from the inner edges, and a bottom distalmost inner seal point is located on the distal inner seal arc; and in that E. the apex point is separated from the bottom distalmost inner seal point by a distance from greater than 0mm to less than 8.0mm. A. a front panel, a rear panel, a first gusseted side panel and a second gusseted side panel, the gusseted side panels (18,20) adjoining the front panel and the rear panel along peripheral seals to form a chamber; B. each panel includes a bottom face (26a, 26b, 26c, 26d) comprising two opposing peripheral tapered seals (40a, 40b, 40c, 40d), each peripheral tapered seal extending from a respective peripheral seal, each peripheral tapered seal comprising an inner edge (29a, 29b, 29c, 29d), the peripheral tapered seals converging at a bottom seal area; C. the front panel bottom face comprises a first line defined by the inner Edge of the first peripheral tapered seal and a second line defined by the inner edge of the second peripheral tapered seal, the first line intersecting the second line at an apex point in the bottom seal area; said flexible container being characterised in that D. the front panel bottom face comprises a distal inner seal arc diverging from the inner edges, and a bottom distalmost inner seal point is located on the distal inner seal arc; and in that E. the apex point is separated from the bottom distalmost inner seal point by a distance from greater than 0mm to less than 8.0mm.
Rack and pinion drive having a steering housing without a thrust piece connector, wherein a toothed rack is slidably mounted in the steering housing, and having a pinion which is rotatably mounted in at least one bearing in a housing having a longitudinal axis, and which pinion has a pinion toothing arrangement which engages with a toothing arrangement of the toothed rack, wherein a bearing arrangement mounts the bearing of the pinion in the housing, characterized in that the bearing arrangement has a guide piece which is arranged in abutment against the housing and has an internal guide face, and a sliding piece which surrounds the bearing and has an external guide face, wherein the sliding piece is guided so as to be slidable in the direction of the longitudinal axis of the pinion by means of the guide faces (13, 14), with the result that the pinion can be adjusted in the direction of the toothed rack, wherein the guide faces (13, 14) are described by two gothic arches.
A method of making a polymer blend comprising the steps of: providing a nanoparticulate solar control concentrate; providing a polymeric resin; and combining the nanoparticulate solar control concentrate and the polymeric resin to form the polymer blend; wherein the nanoparticulate solar control concentrate comprises a. a polymeric matrix material; and b. inorganic infrared absorbing nanoparticles; wherein the inorganic infrared absorbing nanoparticles are dispersed within the matrix material, wherein the inorganic infrared absorbing nanoparticles comprise antimony tin oxide, indium tin oxide, or a mixture of antimony tin oxide and indium tin oxide; and wherein the inorganic infrared absorbing nanoparticles are present at a level of 30 wt% to 50 wt%, based on the total weight of the nanoparticulate solar control concentrate. providing a nanoparticulate solar control concentrate; providing a polymeric resin; and combining the nanoparticulate solar control concentrate and the polymeric resin to form the polymer blend; wherein the nanoparticulate solar control concentrate comprises a. a polymeric matrix material; and b. inorganic infrared absorbing nanoparticles; wherein the inorganic infrared absorbing nanoparticles are dispersed within the matrix material, wherein the inorganic infrared absorbing nanoparticles comprise antimony tin oxide, indium tin oxide, or a mixture of antimony tin oxide and indium tin oxide; and wherein the inorganic infrared absorbing nanoparticles are present at a level of 30 wt% to 50 wt%, based on the total weight of the nanoparticulate solar control concentrate. a. a polymeric matrix material; and b. inorganic infrared absorbing nanoparticles;
A method for controlling a filling operation of a vehicular liquid storage system comprising a tank equipped with a filler pipe and a shut-off valve, characterized in that the method comprises: - detecting the start of a refilling event; - while the shut-off valve is open, observing whether a measured fill level of said tank has reached a predetermined fill level; - if said predetermined fill level has been reached, performing the following steps: - closing the shut-off valve to induce a shut-off of a filling nozzle; - when a first pressure criterion is met, opening the shut-off valve; and - when a second pressure criterion is met, closing the shut-off valve; wherein the second pressure criterion comprises a decrease of pressure inside said tank below a predetermined pressure level. - detecting the start of a refilling event; - while the shut-off valve is open, observing whether a measured fill level of said tank has reached a predetermined fill level; - if said predetermined fill level has been reached, performing the following steps: - closing the shut-off valve to induce a shut-off of a filling nozzle; - when a first pressure criterion is met, opening the shut-off valve; and - when a second pressure criterion is met, closing the shut-off valve; - closing the shut-off valve to induce a shut-off of a filling nozzle; - when a first pressure criterion is met, opening the shut-off valve; and - when a second pressure criterion is met, closing the shut-off valve;
An isolation valve for use with a tubular string, comprising: a tubular housing for connection with the tubular string; a closure member disposed in the housing and movable between an open position and a closed position; a flow tube longitudinally movable relative to the housing for opening the closure member:; a piston for moving the flow tube:; a hydraulic chamber receiving the piston, wherein the piston separates the chamber into a first portion and a second portion; a first hydraulic passage for fluid communication between the first portion of the chamber and a control line and for moving the piston in a first direction; and a second hydraulic passage for fluid communication between the second portion of the chamber and the control line and for moving the piston in a second direction; a piston bore for selective fluid communication between the first portion and the second portion; and a rod disposed in the piston bore and configured to selectively block fluid communication between the piston bore and the first portion and the second portion; wherein the hydraulic chamber is formed between the flow tube and the housing. a tubular housing for connection with the tubular string; a closure member disposed in the housing and movable between an open position and a closed position; a flow tube longitudinally movable relative to the housing for opening the closure member:; a piston for moving the flow tube:; a hydraulic chamber receiving the piston, wherein the piston separates the chamber into a first portion and a second portion; a first hydraulic passage for fluid communication between the first portion of the chamber and a control line and for moving the piston in a first direction; and a second hydraulic passage for fluid communication between the second portion of the chamber and the control line and for moving the piston in a second direction; a piston bore for selective fluid communication between the first portion and the second portion; and a rod disposed in the piston bore and configured to selectively block fluid communication between the piston bore and the first portion and the second portion; wherein the hydraulic chamber is formed between the flow tube and the housing.
A bioabsorbable, nasal valve spreader implant device (10, 140), comprising: an elongated core plate member (30, 90) having first and second opposed lateral sides (32, 92), the lateral sides having outer surfaces (34, 94), the plate member having opposed ends (36, 96), a periphery and a plurality of openings including at least one engagement opening (38, 106) extending through the plate member; and, characterized by an elongated spreader plate member (50, 120) having first and second opposed lateral sides (52, 122), the sides having outer surfaces (54, 124), and at least one snapping pin member (70, 135) extending from at least one lateral side, and a plurality of openings (58, 128) extending through said second plate, wherein the spreader (50, 120) and core plate (30, 90) members are secured to each other by engaging the at least one snapping pin member (70, 135) with an engagement opening (38, 106) in the core plate member (30, 90), and, wherein the core and spreader plate members comprise a bioabsorbable polymer. an elongated core plate member (30, 90) having first and second opposed lateral sides (32, 92), the lateral sides having outer surfaces (34, 94), the plate member having opposed ends (36, 96), a periphery and a plurality of openings including at least one engagement opening (38, 106) extending through the plate member; and, characterized by an elongated spreader plate member (50, 120) having first and second opposed lateral sides (52, 122), the sides having outer surfaces (54, 124), and at least one snapping pin member (70, 135) extending from at least one lateral side, and a plurality of openings (58, 128) extending through said second plate, wherein the spreader (50, 120) and core plate (30, 90) members are secured to each other by engaging the at least one snapping pin member (70, 135) with an engagement opening (38, 106) in the core plate member (30, 90), and, wherein the core and spreader plate members comprise a bioabsorbable polymer.
A probe for treating an ocular pathology comprising: ∘ a ring including a truncated cone having a first end adapted to support ultrasound generating means and a second end for coming into contact with an eye of a patient, the ring further including a skirt coaxial with the truncated cone ∘ ultrasound generating means including a crown comprising a first base intended to come in front of the first end, and a second base opposite the first base, the skirt extending outwardly from the first end so as to envelop the crown, characterized in that the probe further comprises a flow regulator including an opening defined between the skirt and the crown, the opening having a thickness comprised between 0.1 millimeter and 5 millimeters and extending over the entire height of the crown for: ∘ allowing the passage between the second and first bases (212, 211) of a coupling fluid having a viscosity greater than or equal to that of water promoting the transmission of ultrasound to the patient's eye, and ∘ preventing the propagation of bubbles contained in the coupling fluid flowing to the first base when filling the probe with said fluid. ∘ a ring including a truncated cone having a first end adapted to support ultrasound generating means and a second end for coming into contact with an eye of a patient, the ring further including a skirt coaxial with the truncated cone ∘ ultrasound generating means including a crown comprising a first base intended to come in front of the first end, and a second base opposite the first base, the skirt extending outwardly from the first end so as to envelop the crown, ∘ allowing the passage between the second and first bases (212, 211) of a coupling fluid having a viscosity greater than or equal to that of water promoting the transmission of ultrasound to the patient's eye, and ∘ preventing the propagation of bubbles contained in the coupling fluid flowing to the first base when filling the probe with said fluid.
A device for transporting large-format building boards, comprising a cart provided with wheels for the movement thereof and a modular transporter with suction cups for securing the large-format building board to be transported, characterised in that the cart comprises: - at the top, coupling means for removably coupling to ef- the modular transporter carrying suction cups; - an extendable extension on at least one of the front or rear ends of the cart, said extendable extension being provided with fastening means for fastening to the cart in an essentially protruding position, said extendable extension being adapted to form a support on the floor for unloading of the large-format building board from the device towards the end carrying said extendable extension. - at the top, coupling means for removably coupling to ef- the modular transporter carrying suction cups; - an extendable extension on at least one of the front or rear ends of the cart, said extendable extension being provided with fastening means for fastening to the cart in an essentially protruding position, said extendable extension being adapted to form a support on the floor for unloading of the large-format building board from the device towards the end carrying said extendable extension.
A compound represented by Formula 1 below: wherein R 1 to R 4 are each independently a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a fluoro-substituted alkyl group having 1 to 6 carbon atoms, or a fluorine atom, wherein at least one among R 1 to R 4 is a fluorine atom, A is a divalent linking group selected from -O- and -S-, M 1 and M 2 are each independently potassium or sodium, and n and m are each independently an integer of 1 to 10. wherein R 1 to R 4 are each independently a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a fluoro-substituted alkyl group having 1 to 6 carbon atoms, or a fluorine atom, wherein at least one among R 1 to R 4 is a fluorine atom, A is a divalent linking group selected from -O- and -S-, M 1 and M 2 are each independently potassium or sodium, and n and m are each independently an integer of 1 to 10.
A method for operating an automated guided vehicle comprising the steps of: - determining a first vehicle movement parameter of said automated guided vehicle, and a safety zone comprising a perimeter surrounding said automated guided vehicle that covers potential swept paths (23A, 23B), preferably all potential swept paths, of said automated guided vehicle during a safety stop of said automated guided vehicle; - setting a second vehicle movement parameter and said safety zone based on said determined first vehicle movement parameter and said safety zone, characterized, in that during said step of determining said first vehicle movement parameter of said automated guided vehicle, said first vehicle movement parameter comprises a predetermined steering angle of said automated guided vehicle. - determining a first vehicle movement parameter of said automated guided vehicle, and a safety zone comprising a perimeter surrounding said automated guided vehicle that covers potential swept paths (23A, 23B), preferably all potential swept paths, of said automated guided vehicle during a safety stop of said automated guided vehicle; - setting a second vehicle movement parameter and said safety zone based on said determined first vehicle movement parameter and said safety zone,
A compound which (a) has a structure of formula (I*): or (b) is a pharmaceutically acceptable salt thereof; wherein: R 1 is methyl; and R 4 is H or (C 1 -C 6)alkyl. R 1 is methyl; and R 4 is H or (C 1 -C 6)alkyl.
An injectable pharmaceutical formulation comprising per mL: (a) from 2 mg to 10 mg of morphine sulfate or a hydrate thereof; (b) sodium chloride; (c) a buffering system comprised of a buffering agent in an amount which provides a molar ratio of morphine sulfate to the buffering agent from 0.4 to 1.3 and is in an amount sufficient to provide a pH of 5 to the formulation and a conjugate base to the buffering agent; (d) disodium edetate or a hydrate thereof; (e) calcium chloride or a hydrate thereof; and (f) water for injection. (a) from 2 mg to 10 mg of morphine sulfate or a hydrate thereof; (b) sodium chloride; (c) a buffering system comprised of a buffering agent in an amount which provides a molar ratio of morphine sulfate to the buffering agent from 0.4 to 1.3 and is in an amount sufficient to provide a pH of 5 to the formulation and a conjugate base to the buffering agent; (d) disodium edetate or a hydrate thereof; (e) calcium chloride or a hydrate thereof; and (f) water for injection.
A curable powder coating composition comprising: one or more hydroxyl or carboxyl functional polyester(s) in an amount of 9-90 weight percent based on the overall powder coating composition, the functional polyester(s) being characterized by a Tg of more than 35°C; one or more hydroxyl or carboxyl functional acrylic resin(s) in an amount of 9-90 weight percent based on the overall powder coating composition, the hydroxyl or carboxyl functional acrylic resin(s) being characterized by a Tg of more than 35°C; and one or more cross linker(s) able to react with and/or in an amount of 1-50 weight percent based on the overall powder coating composition, wherein the hydroxyl- or acid-value of and, or if a mixture of polyesters and/or a mixture of acrylic resins is present, the average hydroxyl- or acid-value of the mixture of the polyesters and/or the mixture of acrylic resins, have a difference of higher than or equal to 20, in particular 30, and the weight-ratio of / is between 1.0 and 4.5. one or more hydroxyl or carboxyl functional polyester(s) in an amount of 9-90 weight percent based on the overall powder coating composition, the functional polyester(s) being characterized by a Tg of more than 35°C; one or more hydroxyl or carboxyl functional acrylic resin(s) in an amount of 9-90 weight percent based on the overall powder coating composition, the hydroxyl or carboxyl functional acrylic resin(s) being characterized by a Tg of more than 35°C; and one or more cross linker(s) able to react with and/or in an amount of 1-50 weight percent based on the overall powder coating composition,
Use of a haematite pigment whose sum of the a* values in full shade and with reduction in the surface coating test is from 58.0 to 61.0 CIELAB units, preferably from 58.0 to 60.0 CIELAB units, more preferably from 58.5 to 61.0 CIELAB units, more preferably from 58.5 to 60.0 CIELAB units, particularly preferably from 59.0 to 61.0 CIELAB units, more particularly preferably from 59.0 to 60.0 for producing an aqueous, titanium dioxide-containing preparation containing from 50 to 60% of the haematite pigment and titanium dioxide, from 8 to 25% of binders, from 0.2 to 1% of dispersants, from 0.5 to 1% of auxiliaries and water as balance.
Monolithically integrated MOS transistor, having: - a doped well region of a first conductivity type, - an active MOS transistor region formed in the well region, with doped source and drain regions (108, 109) of a second conductivity type and at least one MOS channel region extending between the source and drain regions under a respective gate stack, - a dielectric isolation layer of the STI or LOCOS type adjacent to the active MOS transistor region, wherein - well portions (102A, 102B) of the well region adjoin the MOS channel region in the two opposite lateral longitudinal directions (L1, L2) oriented perpendicular to a notional connecting line extending from the source region through the MOS channel region to the drain region, and said well portions extend as far as a surface of the active MOS transistor region, so that the respective well portion (102A, 102B) adjoining the MOS channel region is arranged between the MOS channel region and the dielectric isolation layer, characterised in that the dielectric isolation layer laterally surrounds the active MOS transistor region on all sides, and the depth of the well portions (102A, 102B) is always greater than a depth of the adjacent dielectric isolation layer. - a doped well region of a first conductivity type, - an active MOS transistor region formed in the well region, with doped source and drain regions (108, 109) of a second conductivity type and at least one MOS channel region extending between the source and drain regions under a respective gate stack, - a dielectric isolation layer of the STI or LOCOS type adjacent to the active MOS transistor region, wherein - well portions (102A, 102B) of the well region adjoin the MOS channel region in the two opposite lateral longitudinal directions (L1, L2) oriented perpendicular to a notional connecting line extending from the source region through the MOS channel region to the drain region, and said well portions extend as far as a surface of the active MOS transistor region, so that the respective well portion (102A, 102B) adjoining the MOS channel region is arranged between the MOS channel region and the dielectric isolation layer,