mhurhangee/patent-ind-claim-en huggingface dataset:
A hair shampoo composition comprising the following components (A) and (B): (A) a taurine salt of an N-acyl methyl taurate represented by the following general formula at 0.5 to 15 mass% R 1 CON(CH 3 )CH 2 CH 2 SO 3 - X + (wherein R 1 CO is an acyl group having 8 to 24 carbon atoms, X is H 3 N + CH 2 CH 2 SO 3 - M + , and M is an alkali metal or organic ammonium) (B) an alkylene oxide derivative represented by the following general formula at 0.3 to 10 mass% R 2 COO(BO) m H (wherein R 2 CO is an acyl group having 8 to 14 carbon atoms, BO is an oxybutylene group, m is the average addition molar number, and 1 ≤ m ≤ 2), wherein the mass ratio of component (A) to component (B) is (A)/(B) = 0.5 to 8. (A) a taurine salt of an N-acyl methyl taurate represented by the following general formula at 0.5 to 15 mass% R 1 CON(CH 3 )CH 2 CH 2 SO 3 - X + (wherein R 1 CO is an acyl group having 8 to 24 carbon atoms, X is H 3 N + CH 2 CH 2 SO 3 - M + , and M is an alkali metal or organic ammonium) (B) an alkylene oxide derivative represented by the following general formula at 0.3 to 10 mass% R 2 COO(BO) m H (wherein R 2 CO is an acyl group having 8 to 14 carbon atoms, BO is an oxybutylene group, m is the average addition molar number, and 1 ≤ m ≤ 2), wherein the mass ratio of component (A) to component (B) is (A)/(B) = 0.5 to 8.
A multi-chamber biological treatment plant comprises a tank , maintenance shafts (2 and 3), chambers of the tank and partition walls (5 and 6), characterized in that the approximate diameter of the plant being between 1100 and 1700 mm, the chambers are arranged next to each other in horizontal direction, the tank is a horizontal cylindrical tank with an inclining and curved partition wall between the second chamber and the third chamber of the tank , wherein the partition wall is a funnel-shaped partition wall which curves inward and the curvature of the partition wall from the edge to the deepest point is within the range of 400-750 mm and the angle α denoting the inclination of the partition wall is 45-80 degrees and wherein the tank comprises a system of purification pipes, which is formed of a through-flow pipe for conducting water from the first to the second chamber, a U-shaped through-flow pipe for sending the sludge floating on the water surface in the third chamber back to the second chamber , a sludge lift for conducting sludge from the third chamber back to the second chamber and an overflow pipe for conducting water from the second chamber into the third chamber and with a height of the inlet of the overflow pipe from the bottom of the second chamber of 300-600 mm and the overflow pipe comprising a pipe (17.1) resting on the partition wall in the third chamber , an elbow (17.2) connected to the upper section of the pipe (17.1) and extending through the partition wall into the second chamber , and a transition detail (17.3) which is fixed to the lower part of the pipe (17.1) and which enlarges the diameter; and wherein the corners (13.1 and 13.2) at the junction of the partitions walls (5 and 6) and the bottom of the body of the tank have been levelled to be rounded; and wherein there is a diffuser at the bottom of the second chamber with an air inlet (12.1).
A particulate material comprising: a shaped abrasive particle having a body comprising: a first layer; a second layer overlying the first layer and comprising a dopant; and a diffusion interface disposed between the first layer and the second layer, wherein the diffusion interface defines a step function difference in a concentration of the dopant in the second layer compared to a concentration of the dopant in the first layer. a first layer; a second layer overlying the first layer and comprising a dopant; and a diffusion interface disposed between the first layer and the second layer, wherein the diffusion interface defines a step function difference in a concentration of the dopant in the second layer compared to a concentration of the dopant in the first layer.
A charging method, applied to a network architecture in which network control and data flow forwarding are separated, wherein the method comprises: executing , by a control plane CP entity, a charging rule installed or activated by a policy control and charging rules function entity; generating , by the CP, a user plane UP entity reporting policy based on the charging rule; requesting , by the CP, a required quota from an online charging system based on the charging rule; receiving , by the CP, a quota delivered by the online charging system, and generating UP quota information based on the quota; and delivering , by the CP, the UP reporting policy and the UP quota information to the UP, wherein the UP reporting policy includes a parameter that indicates an association relationship between the UP reporting policy and the UP quota information. executing , by a control plane CP entity, a charging rule installed or activated by a policy control and charging rules function entity; generating , by the CP, a user plane UP entity reporting policy based on the charging rule; requesting , by the CP, a required quota from an online charging system based on the charging rule; receiving , by the CP, a quota delivered by the online charging system, and generating UP quota information based on the quota; and delivering , by the CP, the UP reporting policy and the UP quota information to the UP, wherein the UP reporting policy includes a parameter that indicates an association relationship between the UP reporting policy and the UP quota information.
A hydraulic circuit comprising: - a central hydraulic pressure supply, - a central controller, - a hydraulic actuator , and - a local pump unit for controlling the hydraulic actuator , said local pump unit comprising: a plurality of hydraulic ports; an electric motor ; a one-way hydraulic pump coupled to said hydraulic ports and powered by said electric motor to provide a high pressure fluid output; a pressure sensor for detecting when a central hydraulic pressure provided by the central hydraulic pressure supply is below a selected value; and a means for connecting a high pressure fluid output from said one-way hydraulic pump to the hydraulic actuator , characterized in that the local pump unit is adapted to be activated, in a sequential power mode, when the pressure sensor detects that the central hydraulic pressure is below the selected value, and in a parallel power mode, by a command from a central controller, wherein, in the parallel power mode, the hydraulic actuator is provided with hydraulic pressure by both the local pump unit and the central hydraulic pressure supply. - a central hydraulic pressure supply, - a central controller, - a hydraulic actuator , and - a local pump unit for controlling the hydraulic actuator , said local pump unit comprising: a plurality of hydraulic ports; an electric motor ; a one-way hydraulic pump coupled to said hydraulic ports and powered by said electric motor to provide a high pressure fluid output; a pressure sensor for detecting when a central hydraulic pressure provided by the central hydraulic pressure supply is below a selected value; and a means for connecting a high pressure fluid output from said one-way hydraulic pump to the hydraulic actuator , characterized in that the local pump unit is adapted to be activated, in a sequential power mode, when the pressure sensor detects that the central hydraulic pressure is below the selected value, and in a parallel power mode, by a command from a central controller, wherein, in the parallel power mode, the hydraulic actuator is provided with hydraulic pressure by both the local pump unit and the central hydraulic pressure supply. a plurality of hydraulic ports; an electric motor ; a one-way hydraulic pump coupled to said hydraulic ports and powered by said electric motor to provide a high pressure fluid output; a pressure sensor for detecting when a central hydraulic pressure provided by the central hydraulic pressure supply is below a selected value; and a means for connecting a high pressure fluid output from said one-way hydraulic pump to the hydraulic actuator , characterized in that the local pump unit is adapted to be activated, in a sequential power mode, when the pressure sensor detects that the central hydraulic pressure is below the selected value, and in a parallel power mode, by a command from a central controller, wherein, in the parallel power mode, the hydraulic actuator is provided with hydraulic pressure by both the local pump unit and the central hydraulic pressure supply.
A monitoring video generation method, applicable to a CT machine, wherein a monitored target is located on a patient table of the CT machine, and the patient table of the CT machine is movable relative to a gantry of the CT machine in an extending direction, the monitoring video generation method comprising: Acquiring (S10) a plurality of primary videos comprising the monitored target, wherein fields of view of the plurality of primary videos are fixed relative to a position of the gantry of the CT machine; characterized in that it further comprises: Determining (S20) a keyframe according to a region in an initial frame of each of the primary videos surrounding the monitored target, and determining a bounding box surrounding the monitored target in the keyframe; Determining (S30), for each of the primary videos, a bounding box surrounding the monitored target in each subsequent frame; and Selecting (S40), for each frame moment from the frames of the plurality of primary videos, a frame in which the region of the monitored target within the bounding box has a largest area as the keyframe, and generating a monitoring video in real time according to a part of each selected keyframe located within the bounding box. Acquiring (S10) a plurality of primary videos comprising the monitored target, wherein fields of view of the plurality of primary videos are fixed relative to a position of the gantry of the CT machine; characterized in that it further comprises: Determining (S20) a keyframe according to a region in an initial frame of each of the primary videos surrounding the monitored target, and determining a bounding box surrounding the monitored target in the keyframe; Determining (S30), for each of the primary videos, a bounding box surrounding the monitored target in each subsequent frame; and Selecting (S40), for each frame moment from the frames of the plurality of primary videos, a frame in which the region of the monitored target within the bounding box has a largest area as the keyframe, and generating a monitoring video in real time according to a part of each selected keyframe located within the bounding box. Determining (S20) a keyframe according to a region in an initial frame of each of the primary videos surrounding the monitored target, and determining a bounding box surrounding the monitored target in the keyframe; Determining (S30), for each of the primary videos, a bounding box surrounding the monitored target in each subsequent frame; and Selecting (S40), for each frame moment from the frames of the plurality of primary videos, a frame in which the region of the monitored target within the bounding box has a largest area as the keyframe, and generating a monitoring video in real time according to a part of each selected keyframe located within the bounding box.
A drum unit usable with a process cartridge mountable to and dismountable from an electrophotographic image forming apparatus, said drum unit comprising: a photosensitive drum having an axis L1; and a coupling member (86; 286; 386) having an axis L2 and connected to an end portion of said photosensitive drum, said coupling member (86; 286; 386) being provided with a plurality of projections (86c1) extending toward an end portion of said coupling member (86; 286; 386), wherein said coupling member (86; 286; 386) is movable along the axis L2 while keeping the axis L2 coaxial with the axis L1 between a first position, and a second position in which said projection (86c1) is closer to said photosensitive drum than in the first position, wherein said projections (86c1) are provided with a force receiving portion for receiving a rotational force, and an outer surface facing away from the axis L2, characterized in that at least a part of the outer surface of said projections (86c1) is more distant from the axis L2 as is further away from said photosensitive drum in a direction of the axis L1. a photosensitive drum having an axis L1; and a coupling member (86; 286; 386) having an axis L2 and connected to an end portion of said photosensitive drum, said coupling member (86; 286; 386) being provided with a plurality of projections (86c1) extending toward an end portion of said coupling member (86; 286; 386), wherein said coupling member (86; 286; 386) is movable along the axis L2 while keeping the axis L2 coaxial with the axis L1 between a first position, and a second position in which said projection (86c1) is closer to said photosensitive drum than in the first position, wherein said projections (86c1) are provided with a force receiving portion for receiving a rotational force, and an outer surface facing away from the axis L2, characterized in that at least a part of the outer surface of said projections (86c1) is more distant from the axis L2 as is further away from said photosensitive drum in a direction of the axis L1.
A method for transmitting a result calculated based on original data that serves as data assets to a data requestor , comprising: obtaining usage demand information of the data requestor for the original data, wherein the usage demand information is used to indicate a demand of the data requestor for obtaining a result calculated based on the original data; submitting a usage authorization request for the original data to a data owner of the original data based on a decentralized identifier, DID, corresponding to the original data; after receiving confirmation information of the usage authorization request from the data owner , processing the original data based on the usage demand to obtain processing result data; transmitting the processing result data to the data requestor ; and generating a verifiable claim, VC, used to record usage information of the original data. obtaining usage demand information of the data requestor for the original data, wherein the usage demand information is used to indicate a demand of the data requestor for obtaining a result calculated based on the original data; submitting a usage authorization request for the original data to a data owner of the original data based on a decentralized identifier, DID, corresponding to the original data; after receiving confirmation information of the usage authorization request from the data owner , processing the original data based on the usage demand to obtain processing result data; transmitting the processing result data to the data requestor ; and generating a verifiable claim, VC, used to record usage information of the original data.
A load gate for a vehicle such as a forwarder or similar and intended to limit a front end gable of a load compartment formed from load bunks and stakes , and comprising outer frame sections that, joined at their ends, form a surrounding principally square or rectangular outer frame, an inner structure that extends between the frame parts and by which the outer frame sections are mutually joined, and further comprising a central principal gate section and side gate sections arranged on each side of this, and the central principal gate section demonstrating a grille inner structure formed from a number of elements placed in a sequence after each other with a different orientation than that of the load bunks and which extend linearly and are located in a parallel manner with a standing orientation, characterised in that the side gate sections demonstrate a grille inner structure formed from a number of elements placed in a sequence after each other with an orientation that differs from that of the stakes , and that the elements that form the grille inner structure are linear elements that comprise flat steel bars, the broader sides of which are turned to face each other.
A particulate water absorbent agent having: a polyacrylic acid (salt)-based water absorbent resin contained at 60 to 100% by mass, a centrifuge retention capacity (CRC) of 30 to 50 g/g, as determined in accordance with EDANA ERT 441.2-02, a weight average particle diameter (D50) of 200 to 600 μm, as determined in accordance with the method disclosed in US 7,638,570 B2, and an index of dunk retention capacity (DRC) represented by the following equation of 30 or less, as determined in accordance with the method disclosed in the description: Index of DRC = 49 − DRC 5 min g / g / * D 50 μm / 1000 , in in which DRC5min is a water absorption ratio of the particulate water absorbent agent after contact with an aqueous 0.9% by weight sodium chloride solution under no pressure for 5 minutes. a polyacrylic acid (salt)-based water absorbent resin contained at 60 to 100% by mass, a centrifuge retention capacity (CRC) of 30 to 50 g/g, as determined in accordance with EDANA ERT 441.2-02, a weight average particle diameter (D50) of 200 to 600 μm, as determined in accordance with the method disclosed in US 7,638,570 B2, and an index of dunk retention capacity (DRC) represented by the following equation of 30 or less, as determined in accordance with the method disclosed in the description: Index of DRC = 49 − DRC 5 min g / g / * D 50 μm / 1000 , in in which DRC5min is a water absorption ratio of the particulate water absorbent agent after contact with an aqueous 0.9% by weight sodium chloride solution under no pressure for 5 minutes.
Fastening set for fastening a mounting frame for sanitary objects, in particular for a cistern, a toilet bowl and/or a washbasin, to a building wall, with a connecting rod , which can be attached to a mounting frame, and with a fastening part attached to one end of the connecting rod , which fastening part can be fastened to a building wall, wherein the connecting rod has at least one longitudinal section having an external thread (4.1), wherein the connecting rod is provided with a channel-shaped connecting part which can be detachably connected to a mounting frame, which connecting part defines a longitudinal axis, and in which the connecting rod is guided in an axially displaceable manner, wherein the channel-shaped connecting part is provided with a slide which is displaceable on the connecting part axially to the longitudinal axis of the connecting rod from a non-contact position to a contact position, and wherein the slide has a contact section (6.1) facing the connecting rod , which contact section in the contact position abuts the external thread (4.1) of the connecting rod , wherein the slide is displaceable from the contact position to the non-contact position, characterized in that the channel-shaped connecting part has at least two radial shoulders (5.8, 5.9), which are provided on opposite circumferential sections of the connecting part and are axially spaced apart from one another in relation to the longitudinal axis of the channel-shaped connecting part, wherein the slide can be moved from the non-contact position into the contact position and vice versa by means of the radial shoulders (5.8, 5.9) and is held in the respective position relative to the connecting rod .
A method for producing bristle fields for brushes, wherein bristles are filled into at least one hole of a mold form by means of a feed line having an upstream end with an inlet valve and a downstream end with an outlet valve at the mold form , the method comprising the steps: • forming at least one bundle of bristles, • applying a predefined gas pressure above atmospheric pressure in the feed line between the inlet valve and the outlet valve , • inserting the bundle of bristles into the feed line at an insertion station between the inlet valve and the outlet valve and maintaining the predefined pressure between the inlet valve and the outlet valve , • draining off a first volume of gas from the feed line via the outlet valve while feeding a second volume of gas into the feed line via the inlet valve , thereby moving the bundle of bristles in the feed line towards the mold form , wherein the pressure in the feed line upstream and downstream of the bundle of bristles is kept above atmospheric pressure. • forming at least one bundle of bristles, • applying a predefined gas pressure above atmospheric pressure in the feed line between the inlet valve and the outlet valve , • inserting the bundle of bristles into the feed line at an insertion station between the inlet valve and the outlet valve and maintaining the predefined pressure between the inlet valve and the outlet valve , • draining off a first volume of gas from the feed line via the outlet valve while feeding a second volume of gas into the feed line via the inlet valve , thereby moving the bundle of bristles in the feed line towards the mold form , wherein the pressure in the feed line upstream and downstream of the bundle of bristles is kept above atmospheric pressure.
A cylinder liner for insert casting including a base and a plurality of protrusions on the outer periphery of the base, wherein the molten metal running index YI defined by the following Formula is 2.2 or more and 14.5 or less. Molten metal running index YI = area ratio S t % of top portions of protrusions × molten metal infiltration volume V mm 3 / outer peripheral surface area A mm 2 of cylinder liner base / average surface − to − surface distance P av mm between top portions of protrusions In the Formula , the area ratio S t of the top portions of the protrusions is the projected area ratio of the protrusions viewed from the outer peripheral side of the cylinder liner in the height direction of the protrusions. In the Formula , the molten metal infiltration volume V is represented by V = α - β - (γ × δ), where α = π × (outermost diameter d max (mm) of cylinder liner including protrusions/2) 2 × axial length L (mm) of cylinder liner, β = π × (outer diameter d (mm) of cylinder liner base/2) 2 × axial length L (mm) of cylinder liner, γ = Number of protrusions per unit area × [(outer diameter d (mm) of cylinder liner base × π × axial length L (mm) of cylinder liner)/unit area (mm 2 )], and δ = π × (average diameter d pav (mm) of top portion of protrusion/2) 2 × average protrusion height H av (mm). When both ends of the cylinder liner are chamfered, the axial length L of the cylinder liner is defined as the length of the cylinder liner minus the length of the chamfered portions. In the Formula , the area ratio S t of the top portions of the protrusions is the projected area ratio of the protrusions viewed from the outer peripheral side of the cylinder liner in the height direction of the protrusions. In the Formula , the molten metal infiltration volume V is represented by V = α - β - (γ × δ), where α = π × (outermost diameter d max (mm) of cylinder liner including protrusions/2) 2 × axial length L (mm) of cylinder liner, β = π × (outer diameter d (mm) of cylinder liner base/2) 2 × axial length L (mm) of cylinder liner, γ = Number of protrusions per unit area × [(outer diameter d (mm) of cylinder liner base × π × axial length L (mm) of cylinder liner)/unit area (mm 2 )], and δ = π × (average diameter d pav (mm) of top portion of protrusion/2) 2 × average protrusion height H av (mm). α = π × (outermost diameter d max (mm) of cylinder liner including protrusions/2) 2 × axial length L (mm) of cylinder liner, β = π × (outer diameter d (mm) of cylinder liner base/2) 2 × axial length L (mm) of cylinder liner, γ = Number of protrusions per unit area × [(outer diameter d (mm) of cylinder liner base × π × axial length L (mm) of cylinder liner)/unit area (mm 2 )], and δ = π × (average diameter d pav (mm) of top portion of protrusion/2) 2 × average protrusion height H av (mm). When both ends of the cylinder liner are chamfered, the axial length L of the cylinder liner is defined as the length of the cylinder liner minus the length of the chamfered portions.