mhurhangee/ep-ind-claims huggingface dataset:
System, comprising: - a treatment device, comprising: - a feed configured to supply particles; - an elongate distributor; - wherein the feed is arranged above the distributor; and - a discharge conveyor located below the distributor, wherein a longitudinal direction of the distributor and a discharge direction of the discharge conveyor are at an angle (α) relative to each other; and - wherein the angle (α) between the distributor and the discharge conveyor defines a varying drop height between the distributor and the discharge conveyor, characterized in that - the elongate distributor of the treatment device is configured to lay the particles supplied by the feed in a homogenously distributed layer on the discharge conveyor; - the discharge conveyor is drivable in a direction in which the drop height decreases; and - the system comprises a separating device arranged downstream of the discharge conveyor of the treatment device, wherein said separating device is configured to separate the homogeneously distributed layer into different fractions based on particle mass. - a treatment device, comprising: - a feed configured to supply particles; - an elongate distributor; - wherein the feed is arranged above the distributor; and - a discharge conveyor located below the distributor, wherein a longitudinal direction of the distributor and a discharge direction of the discharge conveyor are at an angle (α) relative to each other; and - wherein the angle (α) between the distributor and the discharge conveyor defines a varying drop height between the distributor and the discharge conveyor, characterized in that - a feed configured to supply particles; - an elongate distributor; - wherein the feed is arranged above the distributor; and - a discharge conveyor located below the distributor, wherein a longitudinal direction of the distributor and a discharge direction of the discharge conveyor are at an angle (α) relative to each other; and - wherein the angle (α) between the distributor and the discharge conveyor defines a varying drop height between the distributor and the discharge conveyor, characterized in that - the elongate distributor of the treatment device is configured to lay the particles supplied by the feed in a homogenously distributed layer on the discharge conveyor; - the discharge conveyor is drivable in a direction in which the drop height decreases; and - the system comprises a separating device arranged downstream of the discharge conveyor of the treatment device, wherein said separating device is configured to separate the homogeneously distributed layer into different fractions based on particle mass.
A mask for the activity of surface snorkelling, comprising a breathing tube, a rigid frame having a connection terminal for removably connecting said breathing tube, a transparent visor, a soft face shield applicable so as to be tightly sealed against the user's face and having a diaphragm which delimits an upper viewing chamber shaped so as to contain the user's eyes and a lower breathing chamber shaped so as to contain the user's nose and mouth, and a snap locking means for locking said breathing tube to said terminal, comprising an oscillatable lever provided with a hooking tooth engageable in a hooking seat provided on said terminal, wherein said oscillatable lever is fashioned in a separate body removably fixed to said breathing tube and having a limiter for limiting the oscillation stroke of said oscillatable lever, characterised in that said separate body has an outer frame delimiting a compartment for positioning said oscillatable lever, and in that it has at least two mutually aligned bridges (150 A, 150B) which extend towards the inside of said positioning compartment and connect said oscillatable lever to said frame, said stroke limiter being defined by a wall of said outer frame positioned along the oscillation trajectory of said oscillatable lever.
A liquid management layer for a personal care absorbent article, the liquid management layer comprising: a plurality of thermoplastic fibers in the form of a spunbond nonwoven web, wherein the plurality of thermoplastic fibers are randomly oriented and uncrimped, wherein the liquid management layer has a maximum void volume of 25 cc/g and a web density of at least 0.05 g/cc, wherein the liquid management layer has a maximum thickness of 1.5 mm, a basis weight of at least 30 g/m 2 and a rewet value of less than 0.4 g according to test method WSP 70.8, and wherein the liquid management layer has an average fiber diameter of at least 40 microns based on the number of thermoplastic fibers in the liquid management layer and wherein less than 10% by count of the plurality of thermoplastic fibers in the liquid management layer have an absolute fiber diameter less than 30 microns. a plurality of thermoplastic fibers in the form of a spunbond nonwoven web, wherein the plurality of thermoplastic fibers are randomly oriented and uncrimped, wherein the liquid management layer has a maximum void volume of 25 cc/g and a web density of at least 0.05 g/cc, wherein the liquid management layer has a maximum thickness of 1.5 mm, a basis weight of at least 30 g/m 2 and a rewet value of less than 0.4 g according to test method WSP 70.8, and wherein the liquid management layer has an average fiber diameter of at least 40 microns based on the number of thermoplastic fibers in the liquid management layer and wherein less than 10% by count of the plurality of thermoplastic fibers in the liquid management layer have an absolute fiber diameter less than 30 microns.
A pigmented primer composition for forming an n-acyl urea coating that resists corrosion, said composition comprising: a polycarbodiimide-polyurethane hybrid having the structure: wherein: each n is independently a number from 1 to 20; each Y is independently an alkoxy or polyalkoxy group having (w) oxygen atoms, wherein each w is independently at least 1; each z is independently a number from 0 to (w-1); and x, Y, and a total of said C n H 2n+1 groups are present in a ratio of from (4 to 5):(0.5 to 1.5):(2.5 to 4.5), respectively, an acid functional polymer; an organic solvent; and a pigment; and an inorganic filler; wherein: said composition comprises less than or equal to 10 weight percent of water based on a total weight of said composition, said composition comprises less than 100 parts by weight of toluene diisocyanate per one million parts by weight of said composition, and said n-acyl urea coating exhibits corrosion resistance of 2 to 10 as determined using ASTM B117 and ASTM D-1654-08 on a substrate that is unpolished cold rolled steel, aluminum, or galvanized steel. a polycarbodiimide-polyurethane hybrid having the structure: wherein: each n is independently a number from 1 to 20; each Y is independently an alkoxy or polyalkoxy group having (w) oxygen atoms, wherein each w is independently at least 1; each z is independently a number from 0 to (w-1); and x, Y, and a total of said C n H 2n+1 groups are present in a ratio of from (4 to 5):(0.5 to 1.5):(2.5 to 4.5), respectively, each n is independently a number from 1 to 20; each Y is independently an alkoxy or polyalkoxy group having (w) oxygen atoms, wherein each w is independently at least 1; each z is independently a number from 0 to (w-1); and x, Y, and a total of said C n H 2n+1 groups are present in a ratio of from (4 to 5):(0.5 to 1.5):(2.5 to 4.5), respectively, an acid functional polymer; an organic solvent; and a pigment; and an inorganic filler; said composition comprises less than or equal to 10 weight percent of water based on a total weight of said composition, said composition comprises less than 100 parts by weight of toluene diisocyanate per one million parts by weight of said composition, and said n-acyl urea coating exhibits corrosion resistance of 2 to 10 as determined using ASTM B117 and ASTM D-1654-08 on a substrate that is unpolished cold rolled steel, aluminum, or galvanized steel.
A robot control method, comprising: when a robot is hijacked, determining a position when the robot is hijacked; when the robot is released from being hijacked, determining a position when the robot is released from being hijacked based on relocalization operation; if the position when the robot is hijacked and the position when the robot is released from being hijacked belong to same environmental area, and the position when the robot is hijacked is located in a robot running difficulty area (202, 203), controlling the robot to execute a task from the position when the robot is released from being hijacked; if the position when the robot is hijacked and the position when the robot is released from being hijacked belong to same environmental area, and the position when the robot is hijacked is not located in a robot running difficulty area (202, 203), controlling the robot to return to the position when the robot is hijacked to execute a task from the position when the robot is hijacked; wherein the environmental area refers to an area range with independent existence meaning. when a robot is hijacked, determining a position when the robot is hijacked; when the robot is released from being hijacked, determining a position when the robot is released from being hijacked based on relocalization operation; if the position when the robot is hijacked and the position when the robot is released from being hijacked belong to same environmental area, and the position when the robot is hijacked is located in a robot running difficulty area (202, 203), controlling the robot to execute a task from the position when the robot is released from being hijacked; if the position when the robot is hijacked and the position when the robot is released from being hijacked belong to same environmental area, and the position when the robot is hijacked is not located in a robot running difficulty area (202, 203), controlling the robot to return to the position when the robot is hijacked to execute a task from the position when the robot is hijacked; wherein the environmental area refers to an area range with independent existence meaning.
A compound represented by Formula IV: wherein, R 1 - R 9 represent independently for each occurrence H, alkyl, aryl, aralkyl, halogen, CN, or CF 3; X 1 - X 4 represent independently for each occurrence halogen or perhaloalkyl; L is a Lewis base or (μ-O) 2; and M is Cu or Co. R 1 - R 9 represent independently for each occurrence H, alkyl, aryl, aralkyl, halogen, CN, or CF 3; X 1 - X 4 represent independently for each occurrence halogen or perhaloalkyl; L is a Lewis base or (μ-O) 2; and M is Cu or Co.
A rain gutter assembly (10, 52, 54, 56) including a gutter and a moving arrangement (16, 152, 202) the moving arrangement (16, 152, 202) being configured to move at least part of the gutter (10, 52, 54, 56) between an operative or rain gathering position and an inverted or discharge position, the rain gutter assembly further including a drain assembly including a first part in which an end portion of the gutter is received such that the gutter and the first part are connected in flow communication, a second part which is connected or connectable to a downpipe and a coupling characterised in that the first and second parts are pivotably connected to one another for pivotal displacement relative to one another when the gutter is displaced between its operative position and its discharge position.
A cooling device configured to cool an article to be processed by spraying a coolant, the cooling device comprising: a cooling chamber configured to accommodate the article to be processed; a header pipe having a main body section to which a nozzle is attached, and a connecting pipe which protrudes from the main body section and into which the coolant supplied into the main body section is supplied, and in which the main body section and a part of the connecting pipe are disposed in the cooling chamber; and a stopper detachably fixed to an inner wall of the cooling chamber and configured to restrict movement of the header pipe toward the inside of the cooling chamber, wherein the cooling chamber has a container main body and an attachment section, the attachment section includes a pipe section (1a1) protruding outward from the container main body and inside of which the connecting pipe is disposed, and a flange (1a2) installed at a distal end of the pipe section. a cooling chamber configured to accommodate the article to be processed; a header pipe having a main body section to which a nozzle is attached, and a connecting pipe which protrudes from the main body section and into which the coolant supplied into the main body section is supplied, and in which the main body section and a part of the connecting pipe are disposed in the cooling chamber; and a stopper detachably fixed to an inner wall of the cooling chamber and configured to restrict movement of the header pipe toward the inside of the cooling chamber, wherein the cooling chamber has a container main body and an attachment section, the attachment section includes a pipe section (1a1) protruding outward from the container main body and inside of which the connecting pipe is disposed, and a flange (1a2) installed at a distal end of the pipe section.
A lighting control method for controlling the illumination of a working area (206, 208, 512), the method comprising the steps of: measuring incident light on the working area (206, 208, 512) with an RFID-enabled light sensor (102, 212, 214, 216, 312) attached to said working area (206, 208, 512); maintaining a predefined illumination level on the working area (206, 208, 512) by adapting the light level of an RFID-enabled luminary (112, 202, 204, 302, 502) in dependence on the measured incident light; characterized in that the RFID-enabled luminary (112, 202, 204, 302, 502) periodically reads the measured incident light from said RFID-enabled light sensor (102, 212, 214, 216, 312) via an RFID connection (122, 336, 412). measuring incident light on the working area (206, 208, 512) with an RFID-enabled light sensor (102, 212, 214, 216, 312) attached to said working area (206, 208, 512); maintaining a predefined illumination level on the working area (206, 208, 512) by adapting the light level of an RFID-enabled luminary (112, 202, 204, 302, 502) in dependence on the measured incident light; characterized in that the RFID-enabled luminary (112, 202, 204, 302, 502) periodically reads the measured incident light from said RFID-enabled light sensor (102, 212, 214, 216, 312) via an RFID connection (122, 336, 412).
A martensitic stainless Si deoxidized cold -rolled and annealed steel shee, derived from a hot rolled steel sheet, having a steel composition that comprises, in terms of mass%, 0.100 to 0.300% C, 0.20 to 2.50% Si, 0.75 to 4.00% Mn, 0.01 to 1.00% Ni, 11.00 to 15.00% Cr, 0.001 to 0.100% N, 0.0001 to 0.0350% Al, 0 to 0.50% V, 0 to 0.50% Nb, 0 to 0.50% Ti, 0 to 0.020% B, and a balance of Fe and inevitable impurities, having a martensite content of from 80 vol% or more to 100 vol% or less, having a sheet thickness of 0.05 mm to 0.5 mm; and having a sheet surface hardness of 400 HV 1 to 470 HV 1 and that has a value of ymax, which is equal to a maximum volume% of an austenitic phase formed at an increased temperature region of Ac 1 point or higher, and determined by a following equation, of 80.0 or greater, and in which an average composition of oxide based inclusions observed in a metallographic structure has 30 mass% or less Al 2 O 3, 20 to 60 mass% SiO 2 and 15 to 70 mass% MnO in terms of mass ratio conversion of Al 2 O 3, SiO 2 and MnO and maximum diameters of oxide based inclusions in the sheet thickness direction are 1.0% or less of the sheet thickness, measured according to the description, wherein in the steel composition, any one of following equations and is satisfied: γ max = 420 C − 11.5 Si + 7 Mn + 23 Ni − 11.5 Cr − 49 Ti + Nb + V − 52 Al + 470 N + 189 Si + Mn ≥ 1.30 and 0.25 ≤ Si / Mn ≤ 1.50 Si + Mn < 1.30 and 0.40 ≤ Si / Mn ≤ 1.50 herein, a place of the element symbol in the equation is assigned with a content of the corresponding element denoted in terms of mass%, and places of Si and Mn in the equations and are assigned with contents of Si and Mn denoted in terms of mass%.
Antiseptic pharmaceutical preparation in a gel form for use after casual sexual encounters in individual prevention of sexually transmitted diseases, wherein the preparation is for gel administration into a male or female urogenital tract, and wherein the preparation comprises the following components, in grams: chlorhexidine gluconate 0.01-0.5 methyl 4-hydroxybenzoate 0.01-0.1 ethyl 4-hydroxybenzoate 0.01-0.1 propyl 4-hydroxybenzoate 0.01-0.1 propylene glycol 5-70 hydroxyethylcellulose 1.5-5 water up to 100. chlorhexidine gluconate 0.01-0.5 methyl 4-hydroxybenzoate 0.01-0.1 ethyl 4-hydroxybenzoate 0.01-0.1 propyl 4-hydroxybenzoate 0.01-0.1 propylene glycol 5-70 hydroxyethylcellulose 1.5-5 water up to 100.
A loudspeaker system configured such that the sound field generated by the system is controllable comprising: - Left (16, 18; 41, 43) and Right (15, 17; 42, 44) loudspeaker arrangements configured for radiating at least mid and high frequency sounds to the surroundings and for controlling the sound radiation pattern (21, 22, 23, 24, 25, 26) of the left and right loudspeaker arrangements, respectively, such that the beam width and/or direction of the main lobe of the directivity pattern for the respective Left and Right loudspeaker arrangements can be varied; - at least one signal processor configured to process the signals to be provided to the loudspeakers of the respective loudspeaker arrangements such that the directional characteristics of the loudspeakers in each respective arrangement can be varied; whereby the resulting directional characteristic of the system can be adapted to specific use situations; wherein the system further comprises a low frequency arrangement comprising an arrangement of one or more loudspeakers (11, 12, 13, 14, 37) mounted in an enclosure and configured such that the loudspeakers radiate sound energy to the surroundings; and wherein said enclosure comprises an inner house portion (3, 32) and an outer house portion (2, 31), where the outer house portion (2, 31) partially surrounds the inner house portion (3, 32) thereby forming a channel or gap (6, 35) between the inner and outer house portions, and where the inner house portion defines an inner space or cavity (9, 34) that is in acoustic communication via a portion (10, 47) with said channel or gap, the portion (10, 47) defining an inlet area to the channel or gap, and where said channel or gap is in acoustic communication with the surroundings R via an outlet opening or port (7, 36) defining a port area, and wherein said one or more loudspeakers (11, 12, 13, 14, 37) are configured to radiate sound energy into said space or cavity (9, 34), and where said port area is substantially larger than said inlet area, thereby reducing the volume velocity of the sound in the port area substantially relative to the volume velocity of the sound in the inlet area, whereby port noise will be reduced and consequently the sound quality of the sound produced by the system at low frequencies will be improved. - Left (16, 18; 41, 43) and Right (15, 17; 42, 44) loudspeaker arrangements configured for radiating at least mid and high frequency sounds to the surroundings and for controlling the sound radiation pattern (21, 22, 23, 24, 25, 26) of the left and right loudspeaker arrangements, respectively, such that the beam width and/or direction of the main lobe of the directivity pattern for the respective Left and Right loudspeaker arrangements can be varied; - at least one signal processor configured to process the signals to be provided to the loudspeakers of the respective loudspeaker arrangements such that the directional characteristics of the loudspeakers in each respective arrangement can be varied;
An acrylic rubber composition comprising a vulcanizing agent and 1 to 25 parts by mass of a layered clay mineral relative to 100 parts by mass of an acrylic rubber, wherein the layered clay mineral is montmorillonite containing an onium salt selected from the group consisting of quaternary ammonium salts and quaternary phosphonium salts.
Planetary gear unit, in particular for a wind turbine, having a gear unit housing, a central sun gear, which is held in the gear unit housing so as to be rotatable about a central gear unit axis of rotation and bears an external toothing, and a ring gear which is arranged in the gear unit housing concentrically with respect to the central gear unit axis of rotation and has an internal toothing, characterized in that the planetary gear unit has a single-cheek planet carrier which is mounted in the gear unit housing so as to be rotatable about the central gear unit axis of rotation and has a plurality of planetary gears which are mounted on the planet carrier so as to be rotatable about planetary gear axes of rotation by means of planetary gear bearings, which are configured as plain bearings, and have external toothings which are in engagement with the internal toothing of the ring gear and the external toothing of the sun gear, each planetary gear bearing having two annular bearing bodies (12a, 12b), at least one of the annular bearing bodies being penetrated by a planetary gear axle and being held rotationally fixed thereon, sliding surfaces in the shape of conical surfaces being formed on the outer circumferential surfaces of the bearing bodies (12a, 12b) in such a manner that the tapered ends of the bearing bodies (12a, 12b) face each other, and running surfaces (20a, 20b) corresponding to the sliding surfaces of the planetary gear bearing being formed on inner circumferential surfaces of the planetary gear.