mhurhangee/ep-ind-claims huggingface dataset:
A hose connecting device for connecting n hoses through which a gas flows to an insufflator, where n is two to five, wherein a sleeve-shaped element is formed on the insufflator side, wherein the sleeve-shaped element has n insufflation pistons as connecting elements in the region of the sleeve base, wherein the n insufflation pistons as connecting elements protrude from the sleeve base by means of spring tension and can be pressed in the direction of the sleeve base by pressure from the hoses, wherein an elastic sealing element is arranged between each connecting element and each hose, wherein one or more latching elements are arranged in the region of the sleeve opening, which ensure that the hoses engage and lock the hose connection, wherein connecting elements are arranged on the hose side compatible with the connecting elements of the sleeve base, wherein an element as a hose set compatible with the sleeve-shaped element has n hollow cylinders to which the n hoses are connected, so that a fluid connection of all n hoses to the insufflator is ensured, characterised in that the hoses exit from the hose set orthogonally to the longitudinal axis of the insufflation pistons, and in that, in case of an existing hose connection, the surface of the insufflation pistons is flush with the sleeve base. wherein a sleeve-shaped element is formed on the insufflator side, wherein the sleeve-shaped element has n insufflation pistons as connecting elements in the region of the sleeve base, wherein the n insufflation pistons as connecting elements protrude from the sleeve base by means of spring tension and can be pressed in the direction of the sleeve base by pressure from the hoses, wherein an elastic sealing element is arranged between each connecting element and each hose, wherein one or more latching elements are arranged in the region of the sleeve opening, which ensure that the hoses engage and lock the hose connection, wherein connecting elements are arranged on the hose side compatible with the connecting elements of the sleeve base, wherein an element as a hose set compatible with the sleeve-shaped element has n hollow cylinders to which the n hoses are connected, so that a fluid connection of all n hoses to the insufflator is ensured, characterised in that the hoses exit from the hose set orthogonally to the longitudinal axis of the insufflation pistons, and in that, in case of an existing hose connection, the surface of the insufflation pistons is flush with the sleeve base.
A one package curable composition which comprises: an organic polymer having a silicon-containing group capable of crosslinking by forming a siloxane bond; a metal salt of a carboxylic acid in which the carbon atom adjacent to the carbonyl group composing an acid group is a quaternary carbon and/or a carboxylic acid in which the carbon atom adjacent to the carbonyl group composing an acid group is a quaternary carbon; a filler; and an amino group-containing silane coupling agent; wherein the curable composition: - has a total amount of carbonyl group composing an acid group in the component per 100 g of the component of 0.5 to 11 mmol; - contains no organotin compound; and - has a water content of 2,000 ppm or lower. an organic polymer having a silicon-containing group capable of crosslinking by forming a siloxane bond; a metal salt of a carboxylic acid in which the carbon atom adjacent to the carbonyl group composing an acid group is a quaternary carbon and/or a carboxylic acid in which the carbon atom adjacent to the carbonyl group composing an acid group is a quaternary carbon; a filler; and an amino group-containing silane coupling agent; - has a total amount of carbonyl group composing an acid group in the component per 100 g of the component of 0.5 to 11 mmol; - contains no organotin compound; and - has a water content of 2,000 ppm or lower.
Pallet apparatus for storing and transporting system scaffolding components, such as system scaffolding assembly frames, scaffolding tubes or the like, having - a base frame device which has a polygonal, in particular quadrilateral, peripheral contour, in the corner points of which is connected in each case one bearing foot, - wherein each bearing foot has at the top side a connection unit for a profiled bar, wherein - provision is made at two oppositely situated side regions of the base frame device of in each case one bearing frame device, which is arranged in a height direction perpendicular to the plane of the base frame device and has a first and a second frame post (22, 24) running in the height direction, each of which frame posts is connected in its lower region to a bearing foot, and has a frame bar running in a transverse direction and connecting the first and second frame posts (22, 24) in the upper end region, - and the frame bar has at the top side multiple bearing receptacles (30.1, 30.2), spaced apart in the transverse direction, for mounting of system scaffolding components, specifically lead railings, wherein the first and second frame posts (22, 24) are provided on a bearing foot in a plugged-in state at the top side in each case, characterized in that - the first frame post and the frame bar are configured as a one-piece L-shaped component, - the frame bar is connected releasably to the second frame post. - a base frame device which has a polygonal, in particular quadrilateral, peripheral contour, in the corner points of which is connected in each case one bearing foot, - wherein each bearing foot has at the top side a connection unit for a profiled bar, wherein - provision is made at two oppositely situated side regions of the base frame device of in each case one bearing frame device, which is arranged in a height direction perpendicular to the plane of the base frame device and has a first and a second frame post (22, 24) running in the height direction, each of which frame posts is connected in its lower region to a bearing foot, and has a frame bar running in a transverse direction and connecting the first and second frame posts (22, 24) in the upper end region, - and the frame bar has at the top side multiple bearing receptacles (30.1, 30.2), spaced apart in the transverse direction, for mounting of system scaffolding components, specifically lead railings, wherein the first and second frame posts (22, 24) are provided on a bearing foot in a plugged-in state at the top side in each case, characterized in that - the first frame post and the frame bar are configured as a one-piece L-shaped component, - the frame bar is connected releasably to the second frame post. the first and second frame posts (22, 24) are provided on a bearing foot in a plugged-in state at the top side in each case, characterized in that - the first frame post and the frame bar are configured as a one-piece L-shaped component, - the frame bar is connected releasably to the second frame post. - the first frame post and the frame bar are configured as a one-piece L-shaped component, - the frame bar is connected releasably to the second frame post.
Use of a porous adsorbent for removing fluorinated organic compounds, especially fluorinated hydrocarbons, from fluids contaminated therewith, especially for removing perfluorinated compounds or fluorinated surfactants, wherein the adsorbent contains a substituent having a hydrophobic group or having a hydrophobic group and a cationic group and has a specific surface area, as determined via the BET method, of at least 10 1 m 2 /g, especially 10 1 to 10 3 m 2 /g, and is available by a process comprising the steps of: A) providing a porous starting material which contains or consists of a carbohydrate, and a modifying reagent, wherein the modifying reagent is selected such that the carbohydrate is by reaction with the modifying reagent at least partly substituted with the substituent which contains the hydrophobic group or the hydrophobic group and the cationic group, and wherein the hydrophobic group is selected from alkyl groups comprising at least an octylene unit, i.e. a unit of the formula -C 8 H 16 -, from aryl groups and from aralkyl groups; B) treating the starting material with the modifying reagent to obtain the porous adsorbent. A) providing a porous starting material which contains or consists of a carbohydrate, and a modifying reagent, wherein the modifying reagent is selected such that the carbohydrate is by reaction with the modifying reagent at least partly substituted with the substituent which contains the hydrophobic group or the hydrophobic group and the cationic group, and wherein the hydrophobic group is selected from alkyl groups comprising at least an octylene unit, i.e. a unit of the formula -C 8 H 16 -, from aryl groups and from aralkyl groups; B) treating the starting material with the modifying reagent to obtain the porous adsorbent.
A turf surface adapted to being relocated comprising: (a) a reinforcing root-permeable mat; (b) a removable root-permeable backing located beneath the reinforcing root-permeable mat; (c) a layer of growth media located on the reinforcing root-permeable mat; and (d) natural grass plants having roots extending downwardly through the layer of growth media, the reinforcing root-permeable mat and the removable root-permeable backing; wherein, in use, the removable root-permeable backing is separable from the turf surface, prior to the turf surface being laid at a destination site, whereby any roots of the natural grass plant which extend through and engage with the removable root-permeable backing are substantially removable from the underside of the turf surface. (a) a reinforcing root-permeable mat; (b) a removable root-permeable backing located beneath the reinforcing root-permeable mat; (c) a layer of growth media located on the reinforcing root-permeable mat; and (d) natural grass plants having roots extending downwardly through the layer of growth media, the reinforcing root-permeable mat and the removable root-permeable backing;
Injection-moulding process for the production of a polymeric moulding which has a three-dimensional pattern on at least one of its surfaces, where - an injection mould is provided which has injection mould parts A and B, which can be separated from one another and which have an inner surface A' and B' respectively and together form an interior cavity, where inner surface A' has protuberances and/or depress-sions having a height/depth of at least 10 μm and line widths of 100 μm to 2000 μm on a base area, where the protuberances and/or depressions form a three-dimensional pattern which does not correspond to the external shape of the polymeric moulding to be produced which is formed by injection mould part A, and where, with the injection mould opened, - a thermoplastic sheet which has been pigmented with flake-form effect pigments is fixed to surface A', where the thermoplastic sheet has been mass-coloured with the effect pigments, - the injection mould is closed, - a transparent thermoplastic melt is introduced into the interior cavity between the thermoplastic sheet and surface B' of injection mould part B, where at the same time the three-dimensional pattern present on inner surface A' is replicated in the form of its negative on a surface of the thermoplastic sheet facing surface A' and the flake-form pigments reorient themselves at surface A', which carries the three-dimensional pattern, and likewise replicate the three-dimensional pattern, - the injection mould is heated or cooled, and subsequently - the polymeric moulding is demoulded or removed. - an injection mould is provided which has injection mould parts A and B, which can be separated from one another and which have an inner surface A' and B' respectively and together form an interior cavity, where inner surface A' has protuberances and/or depress-sions having a height/depth of at least 10 μm and line widths of 100 μm to 2000 μm on a base area, where the protuberances and/or depressions form a three-dimensional pattern which does not correspond to the external shape of the polymeric moulding to be produced which is formed by injection mould part A, and where, with the injection mould opened, - a thermoplastic sheet which has been pigmented with flake-form effect pigments is fixed to surface A', where the thermoplastic sheet has been mass-coloured with the effect pigments, - the injection mould is closed, - a transparent thermoplastic melt is introduced into the interior cavity between the thermoplastic sheet and surface B' of injection mould part B, where at the same time the three-dimensional pattern present on inner surface A' is replicated in the form of its negative on a surface of the thermoplastic sheet facing surface A' and the flake-form pigments reorient themselves at surface A', which carries the three-dimensional pattern, and likewise replicate the three-dimensional pattern, - the injection mould is heated or cooled, and subsequently - the polymeric moulding is demoulded or removed.
A process for making a copolymer, which process comprises: a) providing a reaction vessel containing a non-homopolymerizable olefinic monomer heated to a temperature of at least 100 °C; and b) feeding one or more added olefinic monomers into the non-homopolymerizable olefinic monomer in the presence of a free radical initiator to form a copolymer of the added olefinic and non-homopolymerizable olefinic monomers wherein the term "non-homopolymerizable olefinic monomer" means that a neat solution of the monomer may be held at a temperature of at least 100 °C for at least two hours without forming increasing quantities of homopolymer, and wherein the term "olefinic monomers" means monomers containing ethylenic unsaturation. a) providing a reaction vessel containing a non-homopolymerizable olefinic monomer heated to a temperature of at least 100 °C; and b) feeding one or more added olefinic monomers into the non-homopolymerizable olefinic monomer in the presence of a free radical initiator to form a copolymer of the added olefinic and non-homopolymerizable olefinic monomers wherein the term "non-homopolymerizable olefinic monomer" means that a neat solution of the monomer may be held at a temperature of at least 100 °C for at least two hours without forming increasing quantities of homopolymer, and wherein the term "olefinic monomers" means monomers containing ethylenic unsaturation.
A control method of a printer, comprising: detecting a state of the printer, when the printer is in error state, saving printing data and error information of the printer, wherein the printing data and the error information are recorded in a memory, the printing data comprises receipt information, wherein saving the printing data and the error information of the printer comprises: saving the receipt information and the error information in a corresponding way, wherein the error information includes error type, the receipt information includes receipt identification number, receipt content, characterized in that the error information includes error occurrence time, the memory is located on a mobile FLASH memory card, and saving the printing data and the error information of the printer comprises: encrypting the printing data; and saving the encrypted printing data. detecting a state of the printer, when the printer is in error state, saving printing data and error information of the printer, wherein the printing data and the error information are recorded in a memory, the printing data comprises receipt information, wherein saving the printing data and the error information of the printer comprises: saving the receipt information and the error information in a corresponding way, wherein the error information includes error type, the receipt information includes receipt identification number, receipt content, characterized in that the error information includes error occurrence time, the memory is located on a mobile FLASH memory card, and saving the printing data and the error information of the printer comprises: encrypting the printing data; and saving the encrypted printing data. encrypting the printing data; and saving the encrypted printing data.
An agricultural rotary cutting blade (61, 260) comprising: a cutting blade body (74, 262), the cutting blade body (74, 262) having a first side surface (78, 278) and a second side surface (76, 280), wherein the cutting blade body (74, 262) is formed of a first material; the cutting blade body (74, 262) having a beveled surface portion (93, 270, 272) between the first side surface (78, 278) and the second side surface (76, 280), the intersection between the beveled surface portion (93, 270, 272) and the second side surface (76, 280) defining a cutting edge (72, 284, 286); a second material applied to the beveled surface portion (93, 270, 272) of the cutting blade body (74, 262), wherein the second material (70, 288) is a laser cladding material, having laser cladding beads (288, 296) not further sharpened to form a sharpened tip at a linear cutting edge (72, 284), wherein the second material does not extend onto the second side surface (76, 280), wherein the second material (70, 288) covers at least 25 percent of the beveled surface portion (93, 270, 272), and wherein the second material (70, 288) provides at least one of greater hardness and wear resistance relative to the first material and reduces wear experienced by the beveled surface (93, 270, 272). a cutting blade body (74, 262), the cutting blade body (74, 262) having a first side surface (78, 278) and a second side surface (76, 280), wherein the cutting blade body (74, 262) is formed of a first material; the cutting blade body (74, 262) having a beveled surface portion (93, 270, 272) between the first side surface (78, 278) and the second side surface (76, 280), the intersection between the beveled surface portion (93, 270, 272) and the second side surface (76, 280) defining a cutting edge (72, 284, 286); a second material applied to the beveled surface portion (93, 270, 272) of the cutting blade body (74, 262), wherein the second material (70, 288) is a laser cladding material, having laser cladding beads (288, 296) not further sharpened to form a sharpened tip at a linear cutting edge (72, 284), wherein the second material does not extend onto the second side surface (76, 280), wherein the second material (70, 288) covers at least 25 percent of the beveled surface portion (93, 270, 272), and wherein the second material (70, 288) provides at least one of greater hardness and wear resistance relative to the first material and reduces wear experienced by the beveled surface (93, 270, 272).
A semipermeable membrane comprising a semipermeable membrane layer containing 50% by mass or more of an amorphous resin, and a sheet-like supporting body that supports the semipermeable membrane layer, wherein the supporting body has a porous first supporting layer and a porous second supporting layer laminated on one of surfaces of the first supporting layer, each of the first supporting layer and the second supporting layer is a porous body containing polytetrafluoroethylene (PTFE) as a main component, the second supporting layer has a smaller mean flow pore diameter than the first supporting layer, a ratio of the mean flow pore diameter of the second supporting layer to the mean flow pore diameter of the first supporting layer is 1/1,000 or more and 1/5 or less, the second supporting layer is impregnated with the semipermeable membrane layer, and the mean flow pore diameter of the first supporting layer is 0.05 μm or more and 20 μm or less, and the mean flow pore diameter of the second supporting layer is 0.01 μm or more and 1 μm or less, the mean flow pore diameter being measured according to the bubble point method of ASTM F316-86. wherein the supporting body has a porous first supporting layer and a porous second supporting layer laminated on one of surfaces of the first supporting layer, each of the first supporting layer and the second supporting layer is a porous body containing polytetrafluoroethylene (PTFE) as a main component, the second supporting layer has a smaller mean flow pore diameter than the first supporting layer, a ratio of the mean flow pore diameter of the second supporting layer to the mean flow pore diameter of the first supporting layer is 1/1,000 or more and 1/5 or less, the second supporting layer is impregnated with the semipermeable membrane layer, and the mean flow pore diameter of the first supporting layer is 0.05 μm or more and 20 μm or less, and the mean flow pore diameter of the second supporting layer is 0.01 μm or more and 1 μm or less, the mean flow pore diameter being measured according to the bubble point method of ASTM F316-86.
Method for controlling a valve that comprises a spring having a spring force (F_1), an actuator having an actuator force (F_2) acting against the spring force (F_1), and a tappet which can be actuated by means of the actuator, a sealing element, which is or can be coupled to the tappet, and a sealing seat, so that the valve is closed when the sealing element bears on the sealing seat, in which - following a closing phase of the valve in the case of a normally open valve, or following an opening phase in the case of a normally closed valve, a current having a predefined rising course is impressed on the actuator during a predefined time interval in order to brake the tappet, starting from an initial value (I_0) of the current to a predefined final value (I_END) of the current, wherein the initial value (I_0) of the current is lower than the final value (I_END) and a duration of the time interval is predefined on the basis of a coupling between the tappet and the sealing element. - following a closing phase of the valve in the case of a normally open valve, or following an opening phase in the case of a normally closed valve, a current having a predefined rising course is impressed on the actuator during a predefined time interval in order to brake the tappet, starting from an initial value (I_0) of the current to a predefined final value (I_END) of the current, wherein the initial value (I_0) of the current is lower than the final value (I_END) and a duration of the time interval is predefined on the basis of a coupling between the tappet and the sealing element.
A method of developing a photocurable printing blank to produce a relief pattern comprising a plurality of relief dots, wherein the photocurable printing blank comprises a backing layer having at least one photocurable layer disposed thereon, a barrier layer on top of the photocurable layer, and a laser ablatable mask layer disposed on top of the barrier layer, the method comprising the step of: a) imaging the at least one photocurable layer by selectively ablating the laser ablatable mask layer to create an image; b) exposing the printing blank to actinic radiation through the barrier layer and mask layer to one or more sources of actinic radiation to selectively crosslink and cure portions of the at least one photocurable layer, wherein the at least one photocurable layer is crosslinked and cured in the portions not covered by the mask layer, thereby creating the relief pattern; and c) developing the printing element to remove the barrier layer, the laser ablated mask layer and uncured portions of the photocurable layer and reveal the relief pattern; wherein the barrier layer has an oxygen diffusion coefficient of less than 6.9 x10 -9 m 2 /sec and an optical transparency of at least 50%. a) imaging the at least one photocurable layer by selectively ablating the laser ablatable mask layer to create an image; b) exposing the printing blank to actinic radiation through the barrier layer and mask layer to one or more sources of actinic radiation to selectively crosslink and cure portions of the at least one photocurable layer, wherein the at least one photocurable layer is crosslinked and cured in the portions not covered by the mask layer, thereby creating the relief pattern; and c) developing the printing element to remove the barrier layer, the laser ablated mask layer and uncured portions of the photocurable layer and reveal the relief pattern;