mhurhangee/patent-ind-claim-en huggingface dataset:
A super absorbent polymer comprising: a base polymer powder comprising a first cross-linked polymer of a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups; and a surface cross-linked layer formed on the base polymer powder and comprising a second cross-linked polymer in which the first cross-linked polymer is further cross-linked via a surface crosslinking agent, wherein the surface cross-linked layer is formed by surface-crosslinking the base polymer powder in the presence of a surface crosslinking solution comprising water, a surface crosslinking agent, aluminum sulfate and an inorganic filler, and the water and surface crosslinking agent are used in an amount of 3.5 parts by weight or less and 0.15 parts by weight or less, respectively, based on 100 parts by weight of the base polymer powder, wherein the surface crosslinking agent is at least one compound selected from the group consisting of ethylene glycol diglycidyl ether, glycerol polyglycidyl ether, propylene glycol diglycidyl ether, and polypropylene glycol diglycidyl ether, wherein an extractable content measured according to EDANA method No. WSP 270.2 is 13% by weight or less, wherein an absorption rate (vortex) measured according to the measurement method of Vortex is 50 seconds or less, and wherein a 6-hour dryness is 1.5 g or less. a base polymer powder comprising a first cross-linked polymer of a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups; and a surface cross-linked layer formed on the base polymer powder and comprising a second cross-linked polymer in which the first cross-linked polymer is further cross-linked via a surface crosslinking agent, wherein the surface cross-linked layer is formed by surface-crosslinking the base polymer powder in the presence of a surface crosslinking solution comprising water, a surface crosslinking agent, aluminum sulfate and an inorganic filler, and the water and surface crosslinking agent are used in an amount of 3.5 parts by weight or less and 0.15 parts by weight or less, respectively, based on 100 parts by weight of the base polymer powder, wherein the surface crosslinking agent is at least one compound selected from the group consisting of ethylene glycol diglycidyl ether, glycerol polyglycidyl ether, propylene glycol diglycidyl ether, and polypropylene glycol diglycidyl ether, wherein an extractable content measured according to EDANA method No. WSP 270.2 is 13% by weight or less, wherein an absorption rate (vortex) measured according to the measurement method of Vortex is 50 seconds or less, and wherein a 6-hour dryness is 1.5 g or less.
Pan system for a machine housing structure of an internal combustion engine, which has two inner and outer pans which are nested in one another, are trough-shaped in cross section and have bottoms and upright walls, from which the inner pan receives lubricating oil from the internal combustion engine, and the outer pan, together with the bottom and the upright walls, extends at least in regions at a distance from the bottom and the walls of the inner pan, such that a channel-like intermediate space is formed which contains the cooling liquid of the internal combustion engine for influencing the temperature of the inner pan, ribs being provided on the inner walls and the outer walls, and the inner pan and the outer pan interacting by means of a support system, characterized in that the inner pan and the outer pan consist of metal material and the inner pan is provided with a cooling rib system on an inner side of the bottom and on the upright walls (6 and 7) for optimizing heat transfer and in that the cooling rib system is provided on the outer side of the upright walls (9 and 10) of the inner pan and has wall cooling ribs (38 and 39), the support system being active between the bottoms (8 and 11) of the inner pan and the outer pan and in that the upright walls (9, 10 and 12 and 13) of the inner pan and the outer pan are connected to the machine housing structure , which support system has a bearing pin on the bottom of the inner pan , which bearing pin , together with a support collar , rests on a receiving bush of the bottom of the outer pan , the bearing pin , together with a guiding pin , protruding into a bore in the receiving bush .
A process for preparing an elemental sulphur-containing composition for use as a fertilizer and/or soil improver, the process comprising wet milling elemental sulphur in a liquid to produce a micronized sulphur slurry for application to soil; wherein the process further comprises adding a preventive scavenging additive for fixating sulphur dioxide and hydrogen sulphide gases that are released by the slurry downstream of the mill; wherein the preventive scavenging additive is added prior to or during application of the slurry to the soil, wherein the preventive scavenging additive includes one or more compounds selected from bases; wherein the preventive scavenging additive is used in an amount from 0.05 to 2 wt.%, based upon the total weight of the slurry; and wherein the base is selected from caustic lime (calcium oxide), caustic potash (potassium hydroxide), caustic soda (sodium hydroxide), and aqua ammonia (ammonium hydroxide), or any combination thereof. wherein the process further comprises adding a preventive scavenging additive for fixating sulphur dioxide and hydrogen sulphide gases that are released by the slurry downstream of the mill; wherein the preventive scavenging additive is added prior to or during application of the slurry to the soil, wherein the preventive scavenging additive includes one or more compounds selected from bases; wherein the preventive scavenging additive is used in an amount from 0.05 to 2 wt.%, based upon the total weight of the slurry; and wherein the base is selected from caustic lime (calcium oxide), caustic potash (potassium hydroxide), caustic soda (sodium hydroxide), and aqua ammonia (ammonium hydroxide), or any combination thereof.
Method for verifying a microcircuit card housed in an electronic device , the microcircuit card comprising a module for identification in a mobile telephone network and which stores a first item of data, and a storage module which stores a second item of data, the method comprising a step (E30) of verifying that the first item of data and the second item of data comply with a predetermined rule.
Dial for a timepiece, comprising: - a first substrate comprising a first surface intended to be located facing a watch glass and a second surface opposite to said first surface , said first substrate further comprising at least one window serving as an index; - at least one second substrate fixed to said first substrate facing said second surface and associated with a light source (11; 11, 11a), said second substrate comprising a zone facing said at least one window ; - a tinted layer located on at least a part of said first surface of said first substrate ; characterized in that said layer comprises a varnish comprising at least 0.1% by mass, preferably at least 1% by mass, of carbon nanotubes. - a first substrate comprising a first surface intended to be located facing a watch glass and a second surface opposite to said first surface , said first substrate further comprising at least one window serving as an index; - at least one second substrate fixed to said first substrate facing said second surface and associated with a light source (11; 11, 11a), said second substrate comprising a zone facing said at least one window ; - a tinted layer located on at least a part of said first surface of said first substrate ;
A method of controlling quality of service in servicing memory transactions, comprising: periodically reading by a quality of service management, QM, circuit disposed on a system on chip, SOC, respective first data rate metrics and respective latency metrics from a plurality of requester circuits (106-108; 110-112) disposed on the SOC while the plurality of requester circuits are actively transmitting memory transactions to a memory controller on the SOC ; periodically reading by the QM circuit a second data rate metric from the memory controller while the memory controller is processing the memory transactions; gathering and storing, by a monitor circuit (118-124) associated with the respective requester circuit (106-108; 110-112), respective latency metrics; and dynamically changing one or more respective values of one or more control parameters of the plurality of requester circuits (106-108; 110-112) and of the memory controller by the QM circuit , in response to determining by the QM circuit while the plurality of requester circuits (106-108; 110-112) are actively transmitting memory transactions to the memory controller , that the respective first data rate metrics, respective latency metrics, and second data rate metric do not satisfy a quality of service profile, the quality of service profile specifying memory controller utilization and for each type or class of memory transaction, a maximum latency and an expected bandwidth allocation. periodically reading by a quality of service management, QM, circuit disposed on a system on chip, SOC, respective first data rate metrics and respective latency metrics from a plurality of requester circuits (106-108; 110-112) disposed on the SOC while the plurality of requester circuits are actively transmitting memory transactions to a memory controller on the SOC ; periodically reading by the QM circuit a second data rate metric from the memory controller while the memory controller is processing the memory transactions; gathering and storing, by a monitor circuit (118-124) associated with the respective requester circuit (106-108; 110-112), respective latency metrics; and dynamically changing one or more respective values of one or more control parameters of the plurality of requester circuits (106-108; 110-112) and of the memory controller by the QM circuit , in response to determining by the QM circuit while the plurality of requester circuits (106-108; 110-112) are actively transmitting memory transactions to the memory controller , that the respective first data rate metrics, respective latency metrics, and second data rate metric do not satisfy a quality of service profile, the quality of service profile specifying memory controller utilization and for each type or class of memory transaction, a maximum latency and an expected bandwidth allocation.
An apparatus , comprising: a handle , comprising a first end and a second end opposite the first end, a handle fluid input on the first end of the handle, a handle fluid output on the second end of the handle communicatively coupled with the handle fluid input , a first handle electrical contact on the first end of the handle , a second handle electrical contact on the second end of the handle communicatively coupled with the first handle electrical contact , a first handle air passage on the first end of the handle , and a second handle air passage on the second end of the handle ; and a shaft comprising a shaft fluid input , a shaft fluid output communicatively coupled with the shaft fluid input , a first shaft electrical contact , a second shaft electrical contact communicatively coupled with the first shaft electrical contact , a first shaft air passage , a second shaft air passage communicatively coupled with the first shaft air passage , and a first shaft coupling comprising the shaft fluid input , the first shaft electrical contact and the first shaft air passage , wherein the first shaft coupling is configured to mate with the second end of the handle to connect the shaft fluid input with the handle fluid output , connect the first shaft electrical contact with the second handle electrical contact , and connect the first shaft air passage with the second handle air passage . a handle , comprising a first end and a second end opposite the first end, a handle fluid input on the first end of the handle, a handle fluid output on the second end of the handle communicatively coupled with the handle fluid input , a first handle electrical contact on the first end of the handle , a second handle electrical contact on the second end of the handle communicatively coupled with the first handle electrical contact , a first handle air passage on the first end of the handle , and a second handle air passage on the second end of the handle ; and a shaft comprising a shaft fluid input , a shaft fluid output communicatively coupled with the shaft fluid input , a first shaft electrical contact , a second shaft electrical contact communicatively coupled with the first shaft electrical contact , a first shaft air passage , a second shaft air passage communicatively coupled with the first shaft air passage , and a first shaft coupling comprising the shaft fluid input , the first shaft electrical contact and the first shaft air passage , wherein the first shaft coupling is configured to mate with the second end of the handle to connect the shaft fluid input with the handle fluid output , connect the first shaft electrical contact with the second handle electrical contact , and connect the first shaft air passage with the second handle air passage .
Trim part which can be transilluminated for a motor vehicle (V) comprising: - a base body made of a translucent or transparent polymer material through which spectral ranges of visible light can be irradiated with low absorption, and - at least one colouring coating applied to the base body , wherein the colouring coating is preferably formed by a paint layer or a paint film, wherein the colouring coating largely absorbs the spectral ranges of visible light and, wherein for transillumination of the base body , the colouring coating has, in some regions, a plurality of dot-like perforations (3, 3', 3") which completely penetrate the colouring coating and, wherein over the perforated colouring coating , a clear paint layer which seals the colouring coating and the perforations (3, 3', 3") is applied, through which clear paint layer spectral ranges of visible light can be irradiated with low absorption, wherein the trim part is a bumper trim or a tailgate trim or a wing trim or a spoiler of a motor vehicle, or a component or assembly or constituent part of the aforementioned parts, characterised in that the diameter D of the perforations (3, 3', 3") is in a range between 175 μm and 500 μm and, the distance A between the centre points M of adjacent perforations (3, 3', 3") is in a range between 1.0 times and 5.0 times, preferably in a range between 1.5 times and 4.0 times, the diameter D of the adjacent perforations (3, 3', 3"), such that the clear paint layer additionally also fills the perforations (3, 3', 3"). - a base body made of a translucent or transparent polymer material through which spectral ranges of visible light can be irradiated with low absorption, and - at least one colouring coating applied to the base body , wherein the colouring coating is preferably formed by a paint layer or a paint film, wherein the colouring coating largely absorbs the spectral ranges of visible light and, wherein for transillumination of the base body , the colouring coating has, in some regions, a plurality of dot-like perforations (3, 3', 3") which completely penetrate the colouring coating and, wherein over the perforated colouring coating , a clear paint layer which seals the colouring coating and the perforations (3, 3', 3") is applied, through which clear paint layer spectral ranges of visible light can be irradiated with low absorption, wherein the trim part is a bumper trim or a tailgate trim or a wing trim or a spoiler of a motor vehicle, or a component or assembly or constituent part of the aforementioned parts, the diameter D of the perforations (3, 3', 3") is in a range between 175 μm and 500 μm and, the distance A between the centre points M of adjacent perforations (3, 3', 3") is in a range between 1.0 times and 5.0 times, preferably in a range between 1.5 times and 4.0 times, the diameter D of the adjacent perforations (3, 3', 3"), such that the clear paint layer additionally also fills the perforations (3, 3', 3").
A rigid inner mold comprising an annular inner mold body having a tire molding surface (S) for forming a green tire (T) and put into a vulcanizing metallic mold (B) with the green tire (T) so as to vulcanize the green tire (T) between the vulcanizing metallic mold (B) and the inner mold body ; the inner mold body comprises a plurality of inner mold segments divided in the circumferential direction; on the tire molding surface (S), a coating layer having rubber release property is provided; the tire molding surface (S) comprises a tread molding surface portion (S1) to mold an inner side surface of a tread portion of the tire, and a side molding surface portion (S2) disposed on the both sides thereof; and the coating layer comprises a tread coating layer portion formed in the tread molding surface portion (S1), and a side coating layer portion formed in the side molding surface portion (S2) characterized in that the side coating layer portion includes a coating layer portion which is harder than that of the tread coating layer portion . the inner mold body comprises a plurality of inner mold segments divided in the circumferential direction; on the tire molding surface (S), a coating layer having rubber release property is provided; the tire molding surface (S) comprises a tread molding surface portion (S1) to mold an inner side surface of a tread portion of the tire, and a side molding surface portion (S2) disposed on the both sides thereof; and the coating layer comprises a tread coating layer portion formed in the tread molding surface portion (S1), and a side coating layer portion formed in the side molding surface portion (S2) characterized in that the side coating layer portion includes a coating layer portion which is harder than that of the tread coating layer portion .
Method for producing an in-situ concrete displacement pile in a subsoil , comprising the method steps: - providing a driving tube (1; 21), which is laterally closed and has an outlet (4; 24) at the end for discharging fresh concrete into the subsoil , the outlet (4; 24) having an outlet opening with an outlet opening diameter (D3) which is reduced in comparison with an inner tube diameter (D2) of the driving tube (1; 21), - producing a borehole by driving the driving tube (1; 21) into the subsoil by means of head ramming until a defined borehole end depth is reached, wherein the outlet opening is closed, - filling the driving tube (1; 21) with fresh concrete , - opening the outlet opening , - raising the driving tube (1; 21) by a defined length (A), fresh concrete flowing out of the outlet opening into the borehole , and - driving the driving tube (1; 21) into the fresh concrete which has already flowed out into the borehole to form a widened pile foot of the in-situ concrete displacement pile. - providing a driving tube (1; 21), which is laterally closed and has an outlet (4; 24) at the end for discharging fresh concrete into the subsoil , the outlet (4; 24) having an outlet opening with an outlet opening diameter (D3) which is reduced in comparison with an inner tube diameter (D2) of the driving tube (1; 21), - producing a borehole by driving the driving tube (1; 21) into the subsoil by means of head ramming until a defined borehole end depth is reached, wherein the outlet opening is closed, - filling the driving tube (1; 21) with fresh concrete , - opening the outlet opening , - raising the driving tube (1; 21) by a defined length (A), fresh concrete flowing out of the outlet opening into the borehole , and - driving the driving tube (1; 21) into the fresh concrete which has already flowed out into the borehole to form a widened pile foot of the in-situ concrete displacement pile.
Conveying system for goods with a pusher loaded by means of a drive device in a conveying direction , with a damping device arranged in the pusher comprising a rotational damping device and with a support and guiding rail , wherein the drive device comprises a spiral spring with a rectangular cross-section clamped on both sides, - wherein the entire drive device is arranged in series with the damping device acting against the conveying direction , - wherein one end of the spiral spring is attached in a front anchor to the support and guide rail , and - wherein the flow of force from the front anchor via the drive device and the damping device to the pusher occurs, characterized in that the drive device and the damping device form a pre-assembled unit that can be inserted into a housing of the pusher . - wherein the entire drive device is arranged in series with the damping device acting against the conveying direction , - wherein one end of the spiral spring is attached in a front anchor to the support and guide rail , and - wherein the flow of force from the front anchor via the drive device and the damping device to the pusher occurs,
A multimode optical fiber (MMF) for operating within a spectral window, said MMF having one of a peak effective modal bandwidth or a minimum effective modal bandwidth at wavelength λ p , said MMF comprising: a cladding having a refractive index of n 2 ; and a core, said core having a radius a and a refractive index profile comprised of refractive indices n(r) defined by a function of a radial distance r from a center of said core to a: n r = n 1 1 − 2 Δ r a α where: n 1 is a refractive index at said center of said core; α is a parameter defining a shape of the refractive index profile; and Δ = n 1 − n 2 / n 1 , said core further having an α opt profile comprised of values α opt ( λ ) defined by a function of wavelength λ , where for a given λ said α opt (λ) value minimizes a group delay of said MMF when said α is set equal to α opt ( λ ) , said α opt profile having one of a concave shape with a maximum at α opt ( λ p ) or a convex shape with a minimum at α opt (λ p ) , wherein α ≤ α opt (λ p ) . a cladding having a refractive index of n 2 ; and a core, said core having a radius a and a refractive index profile comprised of refractive indices n(r) defined by a function of a radial distance r from a center of said core to a: n r = n 1 1 − 2 Δ r a α where: n 1 is a refractive index at said center of said core; α is a parameter defining a shape of the refractive index profile; and Δ = n 1 − n 2 / n 1 , n 1 is a refractive index at said center of said core; α is a parameter defining a shape of the refractive index profile; and Δ = n 1 − n 2 / n 1 , said core further having an α opt profile comprised of values α opt ( λ ) defined by a function of wavelength λ , where for a given λ said α opt (λ) value minimizes a group delay of said MMF when said α is set equal to α opt ( λ ) , said α opt profile having one of a concave shape with a maximum at α opt ( λ p ) or a convex shape with a minimum at α opt (λ p ) , wherein α ≤ α opt (λ p ) .