mhurhangee/patent-ind-claim-en huggingface dataset:
A non-spray-drying, dry-granulation process for making a ceramic particulate mixture comprising from 4wt% to 9wt% water, wherein at least 90wt% of the particles have a particle size of from 80μm to 600μm, as determined by laser diffraction using the standard for size analysis by laser diffraction given in ISO 13320:2009, wherein the process comprises the steps of: (a) forming a precursor material; (b) subjecting the precursor material to a compaction step to form a compacted precursor material; (c) subjecting the compacted precursor material to a crushing step to form a crushed precursor material; and (d) subjecting the crushed precursor material to at least two air classification steps, wherein one air classification step removes at least a portion of the particles having a particle size of greater than 600μm from the crushed precursor material, and wherein the other air classification step removes at least a portion of the particles having a particle size of less than 80μm from the crushed precursor material. wherein the process comprises the steps of: (a) forming a precursor material; (b) subjecting the precursor material to a compaction step to form a compacted precursor material; (c) subjecting the compacted precursor material to a crushing step to form a crushed precursor material; and (d) subjecting the crushed precursor material to at least two air classification steps, (a) forming a precursor material; (b) subjecting the precursor material to a compaction step to form a compacted precursor material; (c) subjecting the compacted precursor material to a crushing step to form a crushed precursor material; and (d) subjecting the crushed precursor material to at least two air classification steps, wherein one air classification step removes at least a portion of the particles having a particle size of greater than 600μm from the crushed precursor material, and wherein the other air classification step removes at least a portion of the particles having a particle size of less than 80μm from the crushed precursor material.
A modular container configured to be installed into at least one mobile robot , comprising: a control unit ; wherein the control unit comprises a microprocessor-controlled module which is operated independently and configured for receiving sensor data; a first communication component ; and a power component ; wherein the modular container is configured to exchange at least one operation transmission with the mobile robot relating to at least one of: secure placement of the modular container into the mobile robot; the contents of the modular container; status of the modular container; and traveling area and/or region, and wherein the modular container comprises at least one identifying component (ID) which is further configured to be unique to each modular container, wherein the ID comprises container data which further comprises information about at least one geometrical specification of the container. a control unit ; wherein the control unit comprises a microprocessor-controlled module which is operated independently and configured for receiving sensor data; a first communication component ; and a power component ; wherein the modular container is configured to exchange at least one operation transmission with the mobile robot relating to at least one of: secure placement of the modular container into the mobile robot; the contents of the modular container; status of the modular container; and traveling area and/or region,
A security authentication method, comprising: receiving, by a first terminal, a public key for signature of a configuration device sent by the configuration device; receiving, by the first terminal, second signature information and role type information of a second terminal from the second terminal, wherein the second signature information is signature information sent by the configuration device to the second terminal, the second signature information is generated by the configuration device according to at least the role type information of the second terminal and a private key for signature of the configuration device, and the public key for signature of the configuration device corresponds to the private key for signature of the configuration device; and generating key information by the first terminal based at least on: role type information of the first terminal matches role type information of the second terminal and the second signature information is correct; wherein the key information is used for the first terminal to establish a security connection to the second terminal. receiving, by a first terminal, a public key for signature of a configuration device sent by the configuration device; receiving, by the first terminal, second signature information and role type information of a second terminal from the second terminal, wherein the second signature information is signature information sent by the configuration device to the second terminal, the second signature information is generated by the configuration device according to at least the role type information of the second terminal and a private key for signature of the configuration device, and the public key for signature of the configuration device corresponds to the private key for signature of the configuration device; and generating key information by the first terminal based at least on: role type information of the first terminal matches role type information of the second terminal and the second signature information is correct; wherein the key information is used for the first terminal to establish a security connection to the second terminal.
Combination electrode having an inner tube which has a first inner tube longitudinal end , which is of closed design, and a second inner tube longitudinal end , a first seal which is arranged in the inner tube and seals off the first inner tube longitudinal end , a first electrically conductive fluid which is arranged in the inner tube between the first inner tube longitudinal end and the first seal , an outer tube which is arranged around the inner tube and delimits a reference chamber which is arranged between the outer tube and the inner tube , a passage hole which is arranged in the inner tube and is arranged between the first seal and the second inner tube longitudinal end and connects the reference chamber in a fluid-conducting manner to an expanded reference chamber which is arranged within the inner tube and is arranged in a region between the first seal and the second inner tube longitudinal end , a second electrically conductive fluid which is arranged in the reference chamber and the expanded reference chamber , a working electrode which extends via the first seal into the first conductive fluid , and a reference electrode which is in contact with the second conductive fluid , wherein that part of the working electrode which is arranged in the expanded reference chamber is sheathed by an electrically insulating layer , wherein the outer tube has a first outer tube longitudinal end in the region of the first inner tube longitudinal end and the combination electrode has a diaphragm in the region of the first outer tube longitudinal end , which diaphragm is designed to keep the second electrically conductive fluid in the reference chamber .
Composition comprising A) 50 wt% to 98.5 wt% of aromatic polycarbonate, and B) 0.8 wt% to ≤ 3.0 wt% of interference pigment and/or pearlescent pigment from the group of the metal oxide-coated micas, characterized in that the composition also comprises C) 0.05 wt% to ≤ 3 wt% of anhydride-modified α-olefin polymer. A) 50 wt% to 98.5 wt% of aromatic polycarbonate, and B) 0.8 wt% to ≤ 3.0 wt% of interference pigment and/or pearlescent pigment from the group of the metal oxide-coated micas, characterized in that the composition also comprises C) 0.05 wt% to ≤ 3 wt% of anhydride-modified α-olefin polymer.
A hydrogen fuel filling system comprising: a first flow passage through which hydrogen fuel supplied from a pressure accumulator that accumulates hydrogen fuel under pressure passes, the pressure accumulator including a plurality of pressure accumulators (10, 12, and 14) accumulating hydrogen fuel under pressure; a second flow passage through which hydrogen fuel supplied from the pressure accumulator passes, and which is arranged in parallel with the first flow passage ; a switching valve (34a and 34b) that switches flow passages selectively from one of the first and second flow passages to another, or that switches flow passages between one and both of the first and second flow passages ; and a control circuit that controls opening/closing of the switching valve (34a and 34b), wherein switching is made between the plurality of pressure accumulators (10, 12, and 14), a fuel cell vehicle using hydrogen fuel as a power source is filled with hydrogen fuel while switching the flow passages by the switching valve (34a and 34b) during supply of hydrogen fuel from the pressure accumulator to which switching has been made every time when switching between the plurality of pressure accumulators (10, 12, and 14) is made, and the fuel cell vehicle is filled with hydrogen fuel without using a flow rate adjusting valve in both of a case that the hydrogen fuel passing through the first flow passage and a case that the hydrogen fuel passing through the second flow passage . a first flow passage through which hydrogen fuel supplied from a pressure accumulator that accumulates hydrogen fuel under pressure passes, the pressure accumulator including a plurality of pressure accumulators (10, 12, and 14) accumulating hydrogen fuel under pressure; a second flow passage through which hydrogen fuel supplied from the pressure accumulator passes, and which is arranged in parallel with the first flow passage ; a switching valve (34a and 34b) that switches flow passages selectively from one of the first and second flow passages to another, or that switches flow passages between one and both of the first and second flow passages ; and a control circuit that controls opening/closing of the switching valve (34a and 34b), wherein switching is made between the plurality of pressure accumulators (10, 12, and 14), a fuel cell vehicle using hydrogen fuel as a power source is filled with hydrogen fuel while switching the flow passages by the switching valve (34a and 34b) during supply of hydrogen fuel from the pressure accumulator to which switching has been made every time when switching between the plurality of pressure accumulators (10, 12, and 14) is made, and the fuel cell vehicle is filled with hydrogen fuel without using a flow rate adjusting valve in both of a case that the hydrogen fuel passing through the first flow passage and a case that the hydrogen fuel passing through the second flow passage .
Fall arrest safety apparatus with blocking on rope, comprising: - a rigid body provided with a trunking for housing the rope , - a securing system designed to swivel between a closed position to cooperate with the rope by blocking the latter at the bottom of the trunking in case of a fall, and an open position releasing access to the trunking for fitting or removal of the rope, - and a control device to move said securing system from the closed position to the open position, and vice-versa, characterized in that the control device comprises a pair of gripping cleats (22, 23 ; 122, 123) independent of each other and able to be actuated simultaneously to stabilize and lock the securing system in the open position allowing access to the trunking , the two gripping cleats (22, 23 ; 122, 123) being arranged side by side and articulated around a transverse axis integral to the pivoting securing system . - a rigid body provided with a trunking for housing the rope , - a securing system designed to swivel between a closed position to cooperate with the rope by blocking the latter at the bottom of the trunking in case of a fall, and an open position releasing access to the trunking for fitting or removal of the rope, - and a control device to move said securing system from the closed position to the open position, and vice-versa,
A carrier disk (1, 1', 1") for holding at least one grinding tool of a floor grinding machine, wherein the carrier disk is arranged to releasably hold a grinding tool , and wherein a cutting, grinding or polishing element is bonded to the grinding tool, the carrier disk comprising: a carrier body having a downwardly exposed face , at which the grinding element is to be arranged, characterised in that an air supply opening is formed in the carrier body, and a plurality of downwardly extending flanges extend axially from the downwardly exposed face of the carrier body and between the opening and a radially outer edge of the carrier body, the flanges comprise at least one pair of attachment flanges for attachment of a grinding tool , which attachment flanges form an acute angle relative to each other, as seen in a plane containing the downwardly exposed face , and present respective side surfaces which are undercut, the attachment flanges are separated by at least one cooling flange , which is provided in a space between the pair of attachment flanges , and an air channel extends between the opening and the peripheral edge of the carrier body , wherein the air channel is formed by the space between the pair of attachment flanges . a carrier body having a downwardly exposed face , at which the grinding element is to be arranged, characterised in that an air supply opening is formed in the carrier body, and a plurality of downwardly extending flanges extend axially from the downwardly exposed face of the carrier body and between the opening and a radially outer edge of the carrier body, the flanges comprise at least one pair of attachment flanges for attachment of a grinding tool , which attachment flanges form an acute angle relative to each other, as seen in a plane containing the downwardly exposed face , and present respective side surfaces which are undercut, the attachment flanges are separated by at least one cooling flange , which is provided in a space between the pair of attachment flanges , and an air channel extends between the opening and the peripheral edge of the carrier body , wherein the air channel is formed by the space between the pair of attachment flanges .
A system for use in a robotic surgical system , the system comprising: a tool driver configured to attach to a surgical tool via a sterile adapter , the tool driver comprising at least one sterile adapter sensor configured to generate a first sensor signal corresponding to a first attachment state between the tool driver and the sterile adapter , and at least one surgical tool sensor configured to generate a second sensor signal corresponding to a second attachment state between the tool driver and the surgical tool , wherein the at least one sterile adapter sensor is operable to generate the first sensor signal in the absence of a complete operative coupling between the tool driver and the sterile adapter ; and a controller coupled to the tool driver , the controller comprising a processor and a memory , and the controller configured to: receive at least one of the first and second sensor signals from at least one of the sensors; generate attachment data using at least one of the first and second sensor signals, the attachment data comprising at least one attachment state between the tool driver , the sterile adapter , and the surgical tool ; and control the tool driver using the attachment data. a tool driver configured to attach to a surgical tool via a sterile adapter , the tool driver comprising at least one sterile adapter sensor configured to generate a first sensor signal corresponding to a first attachment state between the tool driver and the sterile adapter , and at least one surgical tool sensor configured to generate a second sensor signal corresponding to a second attachment state between the tool driver and the surgical tool , wherein the at least one sterile adapter sensor is operable to generate the first sensor signal in the absence of a complete operative coupling between the tool driver and the sterile adapter ; and a controller coupled to the tool driver , the controller comprising a processor and a memory , and the controller configured to: receive at least one of the first and second sensor signals from at least one of the sensors; generate attachment data using at least one of the first and second sensor signals, the attachment data comprising at least one attachment state between the tool driver , the sterile adapter , and the surgical tool ; and control the tool driver using the attachment data. receive at least one of the first and second sensor signals from at least one of the sensors; generate attachment data using at least one of the first and second sensor signals, the attachment data comprising at least one attachment state between the tool driver , the sterile adapter , and the surgical tool ; and control the tool driver using the attachment data.
A method for simultaneously fixing and staining cells, preferably in vitro, the method comprising: initially incubating the cells in a solution including a Ln(III)Zn 16 (HA ligand) 16 metallacrown complex, wherein the HA ligand is a hydroximate ligand; exposing the incubating cells to ultraviolet (UV) light; and continuing to incubate the cells in the solution after UV light exposure. initially incubating the cells in a solution including a Ln(III)Zn 16 (HA ligand) 16 metallacrown complex, wherein the HA ligand is a hydroximate ligand; exposing the incubating cells to ultraviolet (UV) light; and continuing to incubate the cells in the solution after UV light exposure.
A method of automated hairstyle processing comprising the following steps: - providing a predefined hairstyle model including hair property representing values and body shape representing values, particularly head shape representing values, - sampling an actual body shape portion , particularly an actual head shape, of a to be treated subject , involving detecting deviations from a model body shape portion of the predefined hairstyle model , and - in case deviations between the actual body shape and the model body shape portion are detect, adapting a hair property model of the predefined hairstyle model so as to compensate the actual body shape deviations ; wherein the step of adapting the hair property model involves a local adjustment of the hair property model . - providing a predefined hairstyle model including hair property representing values and body shape representing values, particularly head shape representing values, - sampling an actual body shape portion , particularly an actual head shape, of a to be treated subject , involving detecting deviations from a model body shape portion of the predefined hairstyle model , and - in case deviations between the actual body shape and the model body shape portion are detect, adapting a hair property model of the predefined hairstyle model so as to compensate the actual body shape deviations ;
A porous sintered metal body consisting of a metal matrix consisting of elongate metal fibers connected at connective metal nodes , the matrix consisting of: connective metal nodes comprising a first metal material having a first sintering point, wherein the first metal material is nickel or a nickel alloy; elongate metal fibers of a second metal material having a second sintering point that is greater than the first sintering point, wherein the second metal material is stainless steel; wherein the connective metal nodes are fused to the elongate metal fibers to form an interconnected metal matrix comprising the elongate metal fibers connected by and extending between the connective metal nodes , and wherein the porous sintered metal body consists of : from 30 to 70 weight percent of the first metal material, and from 70 to 30 weight percent of the second metal material. connective metal nodes comprising a first metal material having a first sintering point, wherein the first metal material is nickel or a nickel alloy; elongate metal fibers of a second metal material having a second sintering point that is greater than the first sintering point, wherein the second metal material is stainless steel; wherein the connective metal nodes are fused to the elongate metal fibers to form an interconnected metal matrix comprising the elongate metal fibers connected by and extending between the connective metal nodes , and wherein the porous sintered metal body consists of : from 30 to 70 weight percent of the first metal material, and from 70 to 30 weight percent of the second metal material. from 30 to 70 weight percent of the first metal material, and from 70 to 30 weight percent of the second metal material.
A method of remanufacturing a serviceable turbine component , comprising: removing a donor portion from a damaged component ; removing a to-be-replaced portion from the serviceable component generally equivalent to the donor portion leaving a remainder ; and welding the donor portion to the remainder ; wherein said turbine component is a BOAS , the donor portion is a donor portion from a shiplap tab of the damaged component , the to-be-replaced portion is a to-be-replaced portion from a shiplap tab of the serviceable component , and the removing of the to-be-replaced portion leaves the remainder , which is a remainder of the shiplap tab of the serviceable component ; wherein the step of welding the donor portion comprises welding the donor portion to the remainder of the shiplap tab of the serviceable component . removing a donor portion from a damaged component ; removing a to-be-replaced portion from the serviceable component generally equivalent to the donor portion leaving a remainder ; and welding the donor portion to the remainder ; wherein said turbine component is a BOAS , the donor portion is a donor portion from a shiplap tab of the damaged component , the to-be-replaced portion is a to-be-replaced portion from a shiplap tab of the serviceable component , and the removing of the to-be-replaced portion leaves the remainder , which is a remainder of the shiplap tab of the serviceable component ; wherein the step of welding the donor portion comprises welding the donor portion to the remainder of the shiplap tab of the serviceable component .
A showerhead , comprising: a flow device comprising a laminar flow attachment configured to produce a substantially laminar fluid stream; and a flow distribution member coupled to the flow device and spaced apart from the flow device , the flow distribution member configured to receive the substantially laminar fluid stream and to produce a distributed fluid flow; wherein the flow distribution member comprises a base defining a substantially planar surface that faces an outlet of the flow device , and wherein the substantially planar surface is open to the surrounding atmosphere. a flow device comprising a laminar flow attachment configured to produce a substantially laminar fluid stream; and a flow distribution member coupled to the flow device and spaced apart from the flow device , the flow distribution member configured to receive the substantially laminar fluid stream and to produce a distributed fluid flow; wherein the flow distribution member comprises a base defining a substantially planar surface that faces an outlet of the flow device , and wherein the substantially planar surface is open to the surrounding atmosphere.