mhurhangee/ep-ind-claims huggingface dataset:
A receptacle, comprising: a housing; a circuit board disposed on the housing; and an electric protective cover, the electric protective cover comprising: a cover body that is substantially plate-shaped and extends along a radial direction of the receptacle, wherein an accommodating hole (450, 450b) enclosed by an accommodating hole wall (455, 455b) is disposed on the cover body to accommodate a connecting terminal; and a mounting portion disposed on the cover body to be mounted onto the receptacle housing; characterized in that the mounting portion of the electric protective cover is arranged on the housing; wherein the cover body covers the circuit board, and wherein an isolating wall is provided on the hole wall (455, 455b); the isolating wall is arranged to protrude along an axial direction of the accommodating hole (450, 450b); and the isolating wall is at least partially arranged to face the circuit board along a transverse and/or longitudinal direction of the cover body. a housing; a circuit board disposed on the housing; and an electric protective cover, the electric protective cover comprising: a cover body that is substantially plate-shaped and extends along a radial direction of the receptacle, wherein an accommodating hole (450, 450b) enclosed by an accommodating hole wall (455, 455b) is disposed on the cover body to accommodate a connecting terminal; and a mounting portion disposed on the cover body to be mounted onto the receptacle housing; characterized in that the mounting portion of the electric protective cover is arranged on the housing; wherein the cover body covers the circuit board, and wherein an isolating wall is provided on the hole wall (455, 455b); a cover body that is substantially plate-shaped and extends along a radial direction of the receptacle, wherein an accommodating hole (450, 450b) enclosed by an accommodating hole wall (455, 455b) is disposed on the cover body to accommodate a connecting terminal; and a mounting portion disposed on the cover body to be mounted onto the receptacle housing; characterized in that the mounting portion of the electric protective cover is arranged on the housing; wherein the cover body covers the circuit board, and wherein an isolating wall is provided on the hole wall (455, 455b); the isolating wall is arranged to protrude along an axial direction of the accommodating hole (450, 450b); and the isolating wall is at least partially arranged to face the circuit board along a transverse and/or longitudinal direction of the cover body.
A fluid management system, comprising: a fluid pump capable of generating a pulsatile flow of fluid; a fluid pathway for transporting the pulsatile flow of fluid from a fluid source through the fluid pump to a medical device; a dampening element in fluid communication with the fluid pathway, the dampening element comprising a first barrel and a second barrel, the dampening element being responsive to pressure fluctuations of the pulsatile fluid flow to actively dampen the pressure fluctuations and smoothen the pulsatile fluid flow in both flow directions of the fluid pathway; wherein the first barrel includes a first movable seal member disposed within the first barrel and a first biasing member disposed within the first barrel and engaged with the first movable seal member; wherein the second barrel includes a second movable seal member disposed within the second barrel and a second biasing member disposed within the second barrel and engaged with the second movable seal member; and wherein the first barrel dampens the pulsatile fluid flow in a distal direction of the fluid pathway and the second barrel dampens the pulsatile fluid flow in a proximal direction of the fluid pathway. a fluid pump capable of generating a pulsatile flow of fluid; a fluid pathway for transporting the pulsatile flow of fluid from a fluid source through the fluid pump to a medical device; a dampening element in fluid communication with the fluid pathway, the dampening element comprising a first barrel and a second barrel, the dampening element being responsive to pressure fluctuations of the pulsatile fluid flow to actively dampen the pressure fluctuations and smoothen the pulsatile fluid flow in both flow directions of the fluid pathway; wherein the first barrel includes a first movable seal member disposed within the first barrel and a first biasing member disposed within the first barrel and engaged with the first movable seal member; wherein the second barrel includes a second movable seal member disposed within the second barrel and a second biasing member disposed within the second barrel and engaged with the second movable seal member; and wherein the first barrel dampens the pulsatile fluid flow in a distal direction of the fluid pathway and the second barrel dampens the pulsatile fluid flow in a proximal direction of the fluid pathway.
Light unit for a lantern-shaped light for installation at one end of a mast-type light carrier, comprising: A longitudinally extending reflector tube, which is formed on an external circumferential surface as a reflector surface, a light module carrier, which is arranged at one end of the reflector tube, wherein the light module carrier comprises receiving mounts for at least one light module with light sources, and the light module carrier projects over the maximum circumference of the reflector tube in at least one cross-section plane perpendicular to the longitudinal extension of the reflector tube, such that the light from the light sources of the at least one light module impinges only in part onto the reflector surface and is deflected laterally, and the other part leaves the light unit without reflection on the reflector surface, characterized in that not more than 20%, in particular not more than 10%, of the light flux of the at least one light module is reflected on the reflector surface of the reflector tube. A longitudinally extending reflector tube, which is formed on an external circumferential surface as a reflector surface, a light module carrier, which is arranged at one end of the reflector tube, wherein the light module carrier comprises receiving mounts for at least one light module with light sources, and the light module carrier projects over the maximum circumference of the reflector tube in at least one cross-section plane perpendicular to the longitudinal extension of the reflector tube, such that the light from the light sources of the at least one light module impinges only in part onto the reflector surface and is deflected laterally, and the other part leaves the light unit without reflection on the reflector surface, characterized in that not more than 20%, in particular not more than 10%, of the light flux of the at least one light module is reflected on the reflector surface of the reflector tube.
An oil-in-water silicone emulsion composition comprising 100 mass parts of a polyorganosiloxane that contains in each molecule at least two groups selected from the group consisting of a silicon-bonded hydroxyl group, alkoxy group, and alkoxyalkoxy group, 0.1 to 200 mass parts of a colloidal silica, 0.1 to 100 mass parts of an aminoxy group-containing organosilicon compound that has in each molecule an average of two silicon-bonded aminoxy groups, 1 to 100 mass parts of an ionic emulsifying agent, 0.1 to 50 mass parts of non-ionic emulsifying agent, and 10 to 500 mass parts of water.
A method of DC arc fault detection, comprising: (a) acquiring a signal representing a direct electrical current over multiple selected time periods (Y, W); (b) determining an average value (V 1, V 2) for each of the multiple time periods in response to the acquired signal over each of the multiple selected time periods (Y, W); (c) defining a DC arc event based at least partially upon the average values (V 1, V 2); and (d) adding a first value to a counter if a difference between two of said average values (V 1, V 2) exceeds a predetermined threshold. (a) acquiring a signal representing a direct electrical current over multiple selected time periods (Y, W); (b) determining an average value (V 1, V 2) for each of the multiple time periods in response to the acquired signal over each of the multiple selected time periods (Y, W); (c) defining a DC arc event based at least partially upon the average values (V 1, V 2); and (d) adding a first value to a counter if a difference between two of said average values (V 1, V 2) exceeds a predetermined threshold.
A method of preparing an alkoxysilane functionalized polymer, the method comprising: i. introducing an anionic polymerization initiator to a reactor comprising a reactive mixture including conjugated diolefin monomer and solvent to form a living polymer via anionic polymerization; ii. introducing alkoxysilane to the reactor to react with the living polymer to form an alkoxysilane functionalized polymer; iii. adding at least one aliphatic carboxylic acid having at least 10 carbons to the alkoxysilane functionalized polymer; and iv. after adding the at least one aliphatic carboxylic acid, removing solvent from the alkoxysilane functionalized polymer, wherein the addition of aliphatic carboxylic acid increases the Mooney viscosity measured as indicated in the description of the alkoxysilane functionalized polymer by at least 5; and wherein the addition of aliphatic carboxylic acid reduces tack in the alkoxysilane functionalized polymer such that the alkoxysilane functionalized polymer has an adhesive energy measured as indicated in the description of less than 1000 gf mm (= 0.01 Nm). i. introducing an anionic polymerization initiator to a reactor comprising a reactive mixture including conjugated diolefin monomer and solvent to form a living polymer via anionic polymerization; ii. introducing alkoxysilane to the reactor to react with the living polymer to form an alkoxysilane functionalized polymer; iii. adding at least one aliphatic carboxylic acid having at least 10 carbons to the alkoxysilane functionalized polymer; and iv. after adding the at least one aliphatic carboxylic acid, removing solvent from the alkoxysilane functionalized polymer, wherein the addition of aliphatic carboxylic acid increases the Mooney viscosity measured as indicated in the description of the alkoxysilane functionalized polymer by at least 5; and wherein the addition of aliphatic carboxylic acid reduces tack in the alkoxysilane functionalized polymer such that the alkoxysilane functionalized polymer has an adhesive energy measured as indicated in the description of less than 1000 gf mm (= 0.01 Nm).
A method for producing a high-purity aqueous urea solution in a urea production process, the process comprising the steps of: (a) synthesizing urea from a raw material feed to produce a urea synthesis liquid, (b) purifying the urea synthesis liquid to produce an aqueous urea solution having high urea concentration by separating ammonia and carbon dioxide from the urea synthesis liquid, recovering the separated ammonia and carbon dioxide in step (b); (c) separating a part of the aqueous urea solution having high urea concentration after step (b), crystallizing the part of the aqueous urea solution having high urea concentration separated in step (c) to produce a slurry containing crystal urea being a solid and a mother liquid; separating the slurry produced in the step to separate the crystal urea and the mother liquid; selectively and optionally sending back a part of the mother liquid separated in step to step (a) via step, wherein the mother liquid is sent back to step (a) with recovered liquid from step (bl); mixing the crystal urea separated in step with water to produce a high-purity aqueous urea solution, (d) concentrating the rest of the aqueous urea solution separated in step (c), and (e) producing solid granular urea from the concentrated aqueous urea solution produced in step (d). (a) synthesizing urea from a raw material feed to produce a urea synthesis liquid, (b) purifying the urea synthesis liquid to produce an aqueous urea solution having high urea concentration by separating ammonia and carbon dioxide from the urea synthesis liquid, recovering the separated ammonia and carbon dioxide in step (b); (c) separating a part of the aqueous urea solution having high urea concentration after step (b), crystallizing the part of the aqueous urea solution having high urea concentration separated in step (c) to produce a slurry containing crystal urea being a solid and a mother liquid; separating the slurry produced in the step to separate the crystal urea and the mother liquid; selectively and optionally sending back a part of the mother liquid separated in step to step (a) via step, wherein the mother liquid is sent back to step (a) with recovered liquid from step (bl); mixing the crystal urea separated in step with water to produce a high-purity aqueous urea solution, crystallizing the part of the aqueous urea solution having high urea concentration separated in step (c) to produce a slurry containing crystal urea being a solid and a mother liquid; separating the slurry produced in the step to separate the crystal urea and the mother liquid; selectively and optionally sending back a part of the mother liquid separated in step to step (a) via step, wherein the mother liquid is sent back to step (a) with recovered liquid from step (bl); mixing the crystal urea separated in step with water to produce a high-purity aqueous urea solution, (d) concentrating the rest of the aqueous urea solution separated in step (c), and (e) producing solid granular urea from the concentrated aqueous urea solution produced in step (d).
A compound of the formula below: where R1 is selected from: and R2 is selected from: H, -C NH 2, -C NH(CH 3), -C N(CH 3) 2, R3 is H or CH 3, R4 is H or R5 is selected from: H, -C 1-4 alkyl, -C 3-4 cycloalkyl, -CH 2 -C 3-4 cycloalkyl; and n is 1 or 2; or a pharmaceutically acceptable salt thereof. where R1 is selected from: and R2 is selected from: H, -C NH 2, -C NH(CH 3), -C N(CH 3) 2, R3 is H or CH 3, R4 is H or R5 is selected from: H, -C 1-4 alkyl, -C 3-4 cycloalkyl, -CH 2 -C 3-4 cycloalkyl; and n is 1 or 2; or a pharmaceutically acceptable salt thereof.
Textile tool module for a textile machine, with several identical textile tools which each have a holding portion and a working portion, with a module body to which the textile tools are attached by their holding portions so as to be immovable relative to each other and extend in a longitudinal direction starting from the module body, wherein the module body has a fixing part with a first side face and a second side face opposite the first side face, wherein a fixing hole penetrates the fixing part and has an opening (35, 36) at each of the first side face and the second side face, wherein at least one of the two side faces (26, 27) has a fixing region in which the opening (35, 36) is situated and which extends in a transverse direction at right angles to the longitudinal direction up to the edge of the fixing part, characterised in that a contact protrusion with just one circular contact face is present in the fixing region, wherein the circular contact face extends in a contact plane (E1, E2) and the fixing region is free from components of the module body which penetrate the contact plane (E1, E2), and that the circular contact face surrounds the opening (35, 36) completely in the fixing region.
A combination comprising zidovudine and a polymyxin selected from colistin and polymyxin B, or a pharmaceutically acceptable salt thereof, for use in treating a gram-negative bacterial infection, wherein the combination exhibits synergistic antibacterial activity against the gram-negative bacteria as compared to the administration of the combination components taken alone.
A suction excavator that includes a material collection container for a vehicle, wherein the material collection container comprises a container base, a container cover that is tiltable about a cover axis, and which is pivotable into an open position in which the angle between the container cover and the container base is between 80° and 90°, and a device situated on the container cover for receiving and transporting pipes or tubes, wherein the device comprises: - a carrier that is mounted on the container cover; - a holding device for accommodating at least one pipe or tube, wherein the holding device is connected via at least one rail guide to the carrier and movable in parallel to same; and - a drive unit for moving the holding device relative to the carrier between an upper holding position and a lower removal position in which the lower end of the holding device is situated in the plane of the container base or below this plane. - a carrier that is mounted on the container cover; - a holding device for accommodating at least one pipe or tube, wherein the holding device is connected via at least one rail guide to the carrier and movable in parallel to same; and - a drive unit for moving the holding device relative to the carrier between an upper holding position and a lower removal position in which the lower end of the holding device is situated in the plane of the container base or below this plane.
Method of determining, by means of an electronic control and processing device, the solar power or energy entering through an opening equipped with a screening device, the screening device comprising a drive motor, characterized in that the screening device comprises an electric battery for powering the motor, and a photovoltaic generator for powering the battery, and in that the method comprises the steps of: a) determining a value representative of the solar irradiation of the opening from one or a plurality of measurements of the short-circuit current of the photovoltaic generator; b) determining the position of the screening device and deducing therefrom the surface area of the openings which is not obstructed by the screening device; and c) deducing from said value representative of the solar irradiation and of said non-obstructed surface area a value representative of the solar power or energy entering through the opening. a) determining a value representative of the solar irradiation of the opening from one or a plurality of measurements of the short-circuit current of the photovoltaic generator; b) determining the position of the screening device and deducing therefrom the surface area of the openings which is not obstructed by the screening device; and c) deducing from said value representative of the solar irradiation and of said non-obstructed surface area a value representative of the solar power or energy entering through the opening.
A coated print medium, comprising: a base stock having a basis weight of 35 gsm to 250 gsm, comprising: from 65 wt% to 95 wt% cellulose fiber, wherein from 20 wt% to 100 wt% of the cellulose fiber is mechanical pulp, and from 5 wt% to 35 wt% inorganic pigment filler, a coating layer applied to the base stock at from 1 gsm to 50 gsm by dry weight, the coating layer, comprising: inorganic pigment particles having an average equivalent spherical diameter from 0.2 μm to 3.5 μm, a fixative agent including a metal salt, a cationic amine polymer, a quaternary ammonium salt, a quaternary phosphonium salt, or mixture thereof, and a polymer blend comprising a water soluble polymer and a water dispersible polymer having a Zeta potential greater than -40 mV, wherein a dry weight ratio water soluble polymer to water dispersible polymer is from 1:25 to 1:1. a base stock having a basis weight of 35 gsm to 250 gsm, comprising: from 65 wt% to 95 wt% cellulose fiber, wherein from 20 wt% to 100 wt% of the cellulose fiber is mechanical pulp, and from 5 wt% to 35 wt% inorganic pigment filler, from 65 wt% to 95 wt% cellulose fiber, wherein from 20 wt% to 100 wt% of the cellulose fiber is mechanical pulp, and from 5 wt% to 35 wt% inorganic pigment filler, a coating layer applied to the base stock at from 1 gsm to 50 gsm by dry weight, the coating layer, comprising: inorganic pigment particles having an average equivalent spherical diameter from 0.2 μm to 3.5 μm, a fixative agent including a metal salt, a cationic amine polymer, a quaternary ammonium salt, a quaternary phosphonium salt, or mixture thereof, and a polymer blend comprising a water soluble polymer and a water dispersible polymer having a Zeta potential greater than -40 mV, wherein a dry weight ratio water soluble polymer to water dispersible polymer is from 1:25 to 1:1. inorganic pigment particles having an average equivalent spherical diameter from 0.2 μm to 3.5 μm, a fixative agent including a metal salt, a cationic amine polymer, a quaternary ammonium salt, a quaternary phosphonium salt, or mixture thereof, and a polymer blend comprising a water soluble polymer and a water dispersible polymer having a Zeta potential greater than -40 mV, wherein a dry weight ratio water soluble polymer to water dispersible polymer is from 1:25 to 1:1.
Pivotable sensor device having a body for fastening the sensor device to a wall or a ceiling; a sensor head which is connected to the body such that it can be pivoted from a first position into a second position; and a movement detector arranged in the sensor head for detecting movements in a detection range of the movement detector; wherein the sensor head can be pivoted eccentrically about a pivot axis (z) that is arranged perpendicularly to a pivot direction (x) and that passes through the sensor head eccentrically offset in the pivot direction (x), characterised in that the sensor head, viewed along the pivot axis (z), has a symmetrical cross-section with respect to a centre line (m) that extends along a main viewing direction (y) of the movement detector; and the pivot axis (z) passes through the sensor head in the horizontal position of the main viewing direction (y) above said centre line (m). a body for fastening the sensor device to a wall or a ceiling; a sensor head which is connected to the body such that it can be pivoted from a first position into a second position; and a movement detector arranged in the sensor head for detecting movements in a detection range of the movement detector; wherein the sensor head can be pivoted eccentrically about a pivot axis (z) that is arranged perpendicularly to a pivot direction (x) and that passes through the sensor head eccentrically offset in the pivot direction (x), characterised in that the sensor head, viewed along the pivot axis (z), has a symmetrical cross-section with respect to a centre line (m) that extends along a main viewing direction (y) of the movement detector; and the pivot axis (z) passes through the sensor head in the horizontal position of the main viewing direction (y) above said centre line (m).