mhurhangee/ep-ind-claims huggingface dataset:
Device (10, 10.2) for comminuting metal chips, - having at least one rotatably mounted knife shaft (20, 20.2), to which at least two cutting modules are detachably fixed, the cutting modules each being placed individually on the at least one knife shaft (20, 20.2) and being fixed detachably such that, as seen in the direction of rotation of the knife shaft (20, 20.2), there are at least two cutting modules in each case, - having a motor drive for rotating the at least one knife shaft (20, 20.2), - having at least one stationary knife bar (50, 50.2) interacting with the cutting modules of the at least one knife shaft (20, 20.2), - having at least one endless conveyor (60, 60.2) for metal chips, wherein the metal chips transported by the endless conveyor (60, 60.2) can be stripped off the endless conveyor (60, 60.2) by the cutting modules fixed to the knife shaft (20, 20.2), - characterized in that - the at least one knife shaft (20, 20.2) is arranged above the endless conveyor (60, 60.2) or approximately at the same height as the endless conveyor (60, 60.2). - having at least one rotatably mounted knife shaft (20, 20.2), to which at least two cutting modules are detachably fixed, the cutting modules each being placed individually on the at least one knife shaft (20, 20.2) and being fixed detachably such that, as seen in the direction of rotation of the knife shaft (20, 20.2), there are at least two cutting modules in each case, - having a motor drive for rotating the at least one knife shaft (20, 20.2), - having at least one stationary knife bar (50, 50.2) interacting with the cutting modules of the at least one knife shaft (20, 20.2), - having at least one endless conveyor (60, 60.2) for metal chips, wherein the metal chips transported by the endless conveyor (60, 60.2) can be stripped off the endless conveyor (60, 60.2) by the cutting modules fixed to the knife shaft (20, 20.2), - characterized in that - the at least one knife shaft (20, 20.2) is arranged above the endless conveyor (60, 60.2) or approximately at the same height as the endless conveyor (60, 60.2).
Process for purifying and/or degerming liquid and/or aqueous suspensions, comprising the following process steps: cavitation treatment of the medium, especially by means of jet cavitation, at a negative pressure of < 1 bar, preferably 0.03 to 0.07 bar, by treatment of the suspension in a ferromagnetic stator having a rotating magnetic field and magnetic and/or magnetizable elements, especially having ferromagnetic needles, wherein upstream or downstream of the cavitation treatment of the suspension in the ferromagnetic stator is solids comminution in a residual solids comminutor (8.1) having at least one residual solids comminution device having a rotating cutting mechanism with rotating cutting blades at a pressure of < 1 bar, preferably 0.01 to 0.7 bar, characterized in that downstream of the cavitation treatment of the suspension by the treatment of the suspension in a ferromagnetic stator is a sedimentation process at a pressure > 1 bar in a sedimentation unit (9, 10) having at least one sedimentation stage, in that the thus processed suspension is supplied to the sedimentation unit (9, 10) at a pressure > 1 bar either directly after the cavitation treatment or from the residual solids comminutor (8.1) downstream of the cavitation treatment and having the at least one residual solids comminution device, wherein a precipitant, lime or milk of lime is supplied to the suspension before entry into the ferromagnetic stator.
Polysaccharide-based solid material comprising - at least one active agent selected among the bactericidal agents, the fungal agents, the insecticidal agents and the flame-retardant agents, said active agent consisting of more than 50% in weight of at least one compound selected from the group consisting of boron, boron derivatives, silica, silica derivatives, aluminum, aluminum derivatives, aluminosilicate derivatives, phosphorus, phosphorus derivatives, iodine, iodine derivatives and mixtures thereof, - at least one complexing agent at least partly complexing the active agent, and - a polymeric matrix eventually forming bonds with functions of the polysaccharides; said material being characterized in that the complexing agent is chemically bonded to functions of the polymeric matrix. - at least one active agent selected among the bactericidal agents, the fungal agents, the insecticidal agents and the flame-retardant agents, said active agent consisting of more than 50% in weight of at least one compound selected from the group consisting of boron, boron derivatives, silica, silica derivatives, aluminum, aluminum derivatives, aluminosilicate derivatives, phosphorus, phosphorus derivatives, iodine, iodine derivatives and mixtures thereof, - at least one complexing agent at least partly complexing the active agent, and - a polymeric matrix eventually forming bonds with functions of the polysaccharides;
A method for preparing calcium phosphate characterized in that the method comprises, (a) preparing a calcium salt solution of 0.5 to 1.5 M, a phosphate solution of 0.3 to 0.8 M, and a carbonate solution of 0.1 to 0.5 M; (b) mixing the phosphate solution and the carbonate solution of said step (a) to prepare a mixed solution; (c) adding a basic solution into the calcium salt solution of said step (a); (d) adding a basic solution into the mixed solution of said step (b); (e) mixing and reacting the calcium salt solution into which the basic solution has been added in said step (c) with the mixed solution into which the basic solution has been added in said step (d) to prepare a precipitate; and (f) filtering, washing and drying the precipitate of said step (e) to obtain calcium phosphate, wherein the calcium phosphate obtained in said step (f) has a primary particle size of 100 nm or less determined by SEM, and a specific surface area of 40 to 150 m 2 /g determined by BET method. (a) preparing a calcium salt solution of 0.5 to 1.5 M, a phosphate solution of 0.3 to 0.8 M, and a carbonate solution of 0.1 to 0.5 M; (b) mixing the phosphate solution and the carbonate solution of said step (a) to prepare a mixed solution; (c) adding a basic solution into the calcium salt solution of said step (a); (d) adding a basic solution into the mixed solution of said step (b); (e) mixing and reacting the calcium salt solution into which the basic solution has been added in said step (c) with the mixed solution into which the basic solution has been added in said step (d) to prepare a precipitate; and (f) filtering, washing and drying the precipitate of said step (e) to obtain calcium phosphate,
A process for laminating a substrate comprising: providing a film comprising a sulfonated block copolymer, exposing the film to water to obtain a partially or fully hydrated film, applying said partially or fully hydrated film directly to a polar surface or metal surface of a substrate, and laminating said partially or fully hydrated film onto the polar surface or metal surface of a the substrate by drying. providing a film comprising a sulfonated block copolymer, exposing the film to water to obtain a partially or fully hydrated film, applying said partially or fully hydrated film directly to a polar surface or metal surface of a substrate, and laminating said partially or fully hydrated film onto the polar surface or metal surface of a the substrate by drying.
A method for imaging onto a conical surface of a workpiece, comprising: directing an irradiating beam of electromagnetic radiation at a mask, wherein the mask includes a planar surface of a sector of a ring and a predetermined image thereon, the ring sector corresponds to an unwrapped area of a conical surface of a workpiece; producing, as a result of the irradiating beam interacting with the mask, an image field for projection on the conical surface of the workpiece; projecting the image field onto the conical surface of the workpiece; rotating the mask about an axis, wherein the axis comprises the center of the ring; synchronously rotating the workpiece about a second axis, the second axis corresponding to the axis of the conical surface. directing an irradiating beam of electromagnetic radiation at a mask, wherein the mask includes a planar surface of a sector of a ring and a predetermined image thereon, the ring sector corresponds to an unwrapped area of a conical surface of a workpiece; producing, as a result of the irradiating beam interacting with the mask, an image field for projection on the conical surface of the workpiece; projecting the image field onto the conical surface of the workpiece; rotating the mask about an axis, wherein the axis comprises the center of the ring; synchronously rotating the workpiece about a second axis, the second axis corresponding to the axis of the conical surface.
Commutator rotary switch that may pivot rotationally with carbon guides for reversing the direction of rotation of a universal motor, which has two stator contacts (3a, 3b), which at least at one contact point (4a, 4b, 4c) contact partially circulating contact rails (5a, 5b), which are connected conductively to both carbon guides lying diametrically opposite each other, characterised in that a contact rail with two contact points (4a, 4b) extends over at least half the circumference and in which both stator contacts (3a, 3b), to which at least on one partially circulating contact rail (5a, 5b) at least one contact point (4a, 4b, 4c) may be allocated so that it may switch and pivot rotationally, are arranged on only one side of the stator.
A method of switching power modes for a projected capacitive touchscreen having a stack-up which comprises a piezoelectric layer, a plurality of transmitter channels and a plurality of receiver channels, wherein the plurality of transmitter channels and the plurality of receiver channels form a touch sensing grid, the method comprising: activating a touch detect mode; monitoring at least one channel (311, 321) of the touch screen while in touch detect mode, comprising monitoring an amount of charge on the at least one channel (311, 321); determining that a touch event has occurred based on the monitoring of the at least one channel (311, 321); and, transitioning, using a switch (206, 323), from the touch detect mode to a scan mode in response to determining that the touch event has occurred; wherein in the scan mode a driver circuit applies a voltage to the transmitter channels in order to measure the capacitances of each intersection of the plurality of transmitter channels and the plurality of receiver channels; wherein in the touch detect mode the driver circuit applies no voltage to the transmitter channels. activating a touch detect mode; monitoring at least one channel (311, 321) of the touch screen while in touch detect mode, comprising monitoring an amount of charge on the at least one channel (311, 321); determining that a touch event has occurred based on the monitoring of the at least one channel (311, 321); and, transitioning, using a switch (206, 323), from the touch detect mode to a scan mode in response to determining that the touch event has occurred; wherein in the scan mode a driver circuit applies a voltage to the transmitter channels in order to measure the capacitances of each intersection of the plurality of transmitter channels and the plurality of receiver channels; wherein in the touch detect mode the driver circuit applies no voltage to the transmitter channels.
Handheld abrading machine comprising a holding device for holding the abrading machine, a drive motor and a tool head, wherein the holding device comprises a substantially tubular bar which has a proximal end and a distal end, wherein the drive motor is arranged at the proximal end, wherein the tool head is arranged at the distal end, wherein the abrading machine comprises a transmission shaft which connects the drive motor to a tool holder of the tool head for transmitting torque thereto and which runs at least in sections thereof within the tubular bar, wherein the tool head comprises a hood device for covering the tool holder, wherein the hood device comprises a hood element which has a substantially cylindrical hood chamber, wherein the tool holder together with a tool arranged thereon is arrangeable, at least in sections thereof, in the hood chamber, characterized in that the hood element comprises a recess in the form of a segment of a cylinder so that a tangent touching an edge of the tool arranged in the tool holder runs substantially in a plane delimiting the recess in the form of a segment of a cylinder, in that the tool holder, an end of the transmission shaft towards the tool holder and the hood element are arranged on a central element of the tool head such as to be rotatable about at least approximately mutually parallel rotational axes, and in that a substantially annular or ring segment-shaped aspiration channel section of an aspiration channel of an aspiration device of the abrading machine is formed by the central element.
A method for configuring and operating an automatic transmission, preferably an automatic step-shift transmission, of a motor vehicle, preferably a utility vehicle, comprising: providing an operating program, preferably independent of the vehicle and/or drive train, which is configured to operate the automatic transmission as a function of a determination of a relative characteristic value which sets a current longitudinal dynamic characteristic value of the motor vehicle in relation to a reference longitudinal dynamic characteristic value of the motor vehicle; and adapting the operating program in a vehicle-specific and/or drive train-specific manner by defining a vehicle-specific and/or drive train-specific reference design point, as a function of which the reference longitudinal dynamics characteristic value is determined wherein: the reference design point comprises a reference vehicle mass, preferably a vehicle mass with a permissible full load or a vehicle mass characteristic of the driving dynamics of a purpose of use, of the motor vehicle or is derived therefrom; and/or the reference design point comprises or is derived from a reference vehicle tractive force of the motor vehicle. providing an operating program, preferably independent of the vehicle and/or drive train, which is configured to operate the automatic transmission as a function of a determination of a relative characteristic value which sets a current longitudinal dynamic characteristic value of the motor vehicle in relation to a reference longitudinal dynamic characteristic value of the motor vehicle; and adapting the operating program in a vehicle-specific and/or drive train-specific manner by defining a vehicle-specific and/or drive train-specific reference design point, as a function of which the reference longitudinal dynamics characteristic value is determined wherein: the reference design point comprises a reference vehicle mass, preferably a vehicle mass with a permissible full load or a vehicle mass characteristic of the driving dynamics of a purpose of use, of the motor vehicle or is derived therefrom; and/or the reference design point comprises or is derived from a reference vehicle tractive force of the motor vehicle. the reference design point comprises a reference vehicle mass, preferably a vehicle mass with a permissible full load or a vehicle mass characteristic of the driving dynamics of a purpose of use, of the motor vehicle or is derived therefrom; and/or the reference design point comprises or is derived from a reference vehicle tractive force of the motor vehicle.
Aircraft with a system for rearward mounting and dismounting an engine, the engine being placed inside the rear part of the aircraft when mounted, the system for rearward mounting and dismounting the engine comprising: - first removable attachment means arranged to attach the engine to the fuselage in the rear part of the aircraft, - internal supports fixed in the rear part of the aircraft, - at least two longitudinal detachable rails, to be placed on the internal supports and under the engine, and - sliding means with second removable attachment means, the fuselage comprising windows for accessing the first removable attachment means and the second removable attachment means, characterized in that the sliding means are configured to be entered into the rear part of the aircraft, to be placed on the longitudinal detachable rails and to be attached to the engine by means of the second removable attachment means. - first removable attachment means arranged to attach the engine to the fuselage in the rear part of the aircraft, - internal supports fixed in the rear part of the aircraft, - at least two longitudinal detachable rails, to be placed on the internal supports and under the engine, and - sliding means with second removable attachment means,
Catalyst comprising a small-pore zeolite containing iron and copper with a maximum ring size of eight tetrahedral atoms, characterized in that the small-pore zeolite is of the structure type EAB, ERI, ESV, JBW or LEV and that the channel width of the small-pore zeolite is > 3.8 Å (0.38 nm) in at least one dimension and that the small-pore zeolite comprises copper in an amount of 0.2 to 3 wt.%, calculated as Cu, and iron in an amount of 0.2 to 3 wt.%, calculated as Fe, in each case based on the total weight of the exchanged small-pore zeolite, and wherein the small-pore zeolite does not contain any metal other than copper and iron.
A camera support bowl clamp device comprising: a bowl member of a pan tilt head suitable for supporting a broadcast or motion picture camera, wherein said bowl member being arranged within a recessed member of the camera support, a shaft, a clamping cup, whereby said bowl member is attached at one end of said shaft and the clamping cup arranged at an opposite end of said shaft, whereby said opposite end extends through said recessed member of the camera support; wherein said clamping cup located at a first limit position applies a clamping force to a surface of said recessed member of the camera support which subsequently pulls said bowl member, via said shaft, down into said recessed member and applies a second clamping force from a surface of said bowl to a cooperating surface of said recessed member, and at a second limit position releases said clamping force exerted on said recessed member which subsequently releases said second clamping force by separating said surface of said bowl from said cooperating surface of said recessed member; wherein said clamping cup further comprises a clamp adjustment member characterized in that said clamping cup further comprises a resilient member, and at least one lever pivotally attached to said clamp adjustment member whereby the movement of said lever to a first position compresses said resilient member to locate said clamping cup at said second limit position, and at a second position said lever allows the resilient member to decompress to locate said clamping cup at said first position. a bowl member of a pan tilt head suitable for supporting a broadcast or motion picture camera, wherein said bowl member being arranged within a recessed member of the camera support, a shaft, a clamping cup, whereby said bowl member is attached at one end of said shaft and the clamping cup arranged at an opposite end of said shaft, whereby said opposite end extends through said recessed member of the camera support; wherein said clamping cup located at a first limit position applies a clamping force to a surface of said recessed member of the camera support which subsequently pulls said bowl member, via said shaft, down into said recessed member and applies a second clamping force from a surface of said bowl to a cooperating surface of said recessed member, and at a second limit position releases said clamping force exerted on said recessed member which subsequently releases said second clamping force by separating said surface of said bowl from said cooperating surface of said recessed member; wherein said clamping cup further comprises a clamp adjustment member characterized in that said clamping cup further comprises a resilient member, and at least one lever pivotally attached to said clamp adjustment member whereby the movement of said lever to a first position compresses said resilient member to locate said clamping cup at said second limit position, and at a second position said lever allows the resilient member to decompress to locate said clamping cup at said first position.
A terminal device that can be connected to one or more base station devices that each form one or more beams, the terminal device comprising: monitoring means for monitoring, in an unconnected state in which a radio resource control, RRC, connection is not established but a predetermined signal can be transmitted by the terminal device, a connection target beam to be used when the terminal device establishes a connection with any of the one or more base station devices; and reporting means for reporting, without transitioning to a connected state in which an RRC connection is established, at least based on a fact that the connection target beam has transitioned, information regarding the connection target beam to a base station device that forms the connection target beam; wherein the reporting means is configured to report the information regarding the connection target beam also based on the number of transitions of the connection target beam in the unconnected state, and/or wherein the reporting means is configured to report the information regarding the connection target beam also based on the number of beams to which the connection target beam has transitioned in the unconnected state. monitoring means for monitoring, in an unconnected state in which a radio resource control, RRC, connection is not established but a predetermined signal can be transmitted by the terminal device, a connection target beam to be used when the terminal device establishes a connection with any of the one or more base station devices; and reporting means for reporting, without transitioning to a connected state in which an RRC connection is established, at least based on a fact that the connection target beam has transitioned, information regarding the connection target beam to a base station device that forms the connection target beam; wherein the reporting means is configured to report the information regarding the connection target beam also based on the number of transitions of the connection target beam in the unconnected state, and/or wherein the reporting means is configured to report the information regarding the connection target beam also based on the number of beams to which the connection target beam has transitioned in the unconnected state.