mhurhangee/ep-ind-claims huggingface dataset:
Method for forming a connection (3, 20) between two pipe segments (1, 2, 21, 22) of different widths, preferably a tower-like structure, in particular a wind turbine, - in which the wider pipe segment (1, 31) is pushed with one end partially over an end of the narrower pipe segment (2, 32), - in which the pipe segments (1, 2, 21, 22) are positioned spaced apart from one another, forming an annular gap (5, 27) between the pipe segments (1, 2, 21, 22), - in which a separating layer (4, 14) extending in the longitudinal direction of the pipe segments (1, 2, 21, 22) and/or in the radial direction is provided in the annular gap (5, 27) between the two pipe segments (1, 2, 21, 22), - in which the annular gap (5, 27) is cast at least partially with a casting compound (9, 30) adjacent to the separating layer (4, 14) and to at least one side of the separating layer (4, 14), - in which, when the casting compound (9, 30) hardens, the casting compound (9, 30) on one side of the separating layer (4, 14) forms a firm connection (3, 20) only with one of the pipe segments (1, 2, 21, 22) and/or the casting compound (9, 30) on the other side of the casting compound (9, 30) forms a firm connection (3, 20) only with the other pipe segment (1, 2, 21, 22), and - in which the pipe segments (1, 2, 21, 22) are separated from one another again along the separating layer (4, 14) after the casting compound (9, 30) has hardened with the associated separate connecting elements (10, 11, 21, 22) formed in particular by the hardened casting compound (9, 30). - in which the wider pipe segment (1, 31) is pushed with one end partially over an end of the narrower pipe segment (2, 32), - in which the pipe segments (1, 2, 21, 22) are positioned spaced apart from one another, forming an annular gap (5, 27) between the pipe segments (1, 2, 21, 22), - in which a separating layer (4, 14) extending in the longitudinal direction of the pipe segments (1, 2, 21, 22) and/or in the radial direction is provided in the annular gap (5, 27) between the two pipe segments (1, 2, 21, 22), - in which the annular gap (5, 27) is cast at least partially with a casting compound (9, 30) adjacent to the separating layer (4, 14) and to at least one side of the separating layer (4, 14), - in which, when the casting compound (9, 30) hardens, the casting compound (9, 30) on one side of the separating layer (4, 14) forms a firm connection (3, 20) only with one of the pipe segments (1, 2, 21, 22) and/or the casting compound (9, 30) on the other side of the casting compound (9, 30) forms a firm connection (3, 20) only with the other pipe segment (1, 2, 21, 22), and - in which the pipe segments (1, 2, 21, 22) are separated from one another again along the separating layer (4, 14) after the casting compound (9, 30) has hardened with the associated separate connecting elements (10, 11, 21, 22) formed in particular by the hardened casting compound (9, 30).
A system comprising: an alias generation engine operative to generate an alias that is specific to a third party entity; an alias data store, coupled to the alias generation engine, operative to store user contact information-in association with the alias; an alias agent engine, coupled to the alias data store, operative to: receive a first message having: a message source; and a first message destination that includes the alias; determine, based on the message source and the first message destination that includes the alias, whether the first message is from the third party entity or a different entity, and if the first message is from the different entity, filter the first message based on user preferences, and if the first message is from the third party entity: determine, based on the alias included in the first message, the user contact information; generate a second message from the first message, the second message having: the message source; and the user contact information; send the second message to a second message destination based on the user contact information. an alias generation engine operative to generate an alias that is specific to a third party entity; an alias data store, coupled to the alias generation engine, operative to store user contact information-in association with the alias; an alias agent engine, coupled to the alias data store, operative to: receive a first message having: a message source; and a first message destination that includes the alias; a message source; and a first message destination that includes the alias; determine, based on the message source and the first message destination that includes the alias, whether the first message is from the third party entity or a different entity, and if the first message is from the different entity, filter the first message based on user preferences, and if the first message is from the third party entity: determine, based on the alias included in the first message, the user contact information; generate a second message from the first message, the second message having: the message source; and the user contact information; send the second message to a second message destination based on the user contact information. determine, based on the alias included in the first message, the user contact information; generate a second message from the first message, the second message having: the message source; and the user contact information; the message source; and the user contact information; send the second message to a second message destination based on the user contact information.
A catalyst suitable for use in hydrogen isotope exchange between water and hydrogen, which catalyst comprises a hydrophobic porous matrix having dispersed therein platinum and at least one other metal selected from chromium and titanium, wherein the platinum and the at least one other metal are deposited on support particles dispersed in the hydrophobic porous matrix.
A method for constructing a non-structural flooring, this method: - consisting in that: - an improvement of the floor intended to receive said flooring is carried out; - above said improvement is carried out a distribution mat; - said mat is covered with a sliding layer; - a non-structural flooring is carried out on said sliding layer; - a single framework is positioned in the upper portion of said flooring, in the first upper third of its thickness; - a fiber-reinforced concrete is poured over the full height of said flooring; - wherein it consists in: - calculating the upper vertical descending torques at the surface of said flooring and the lower vertical descending torques at the lower face of said flooring, depending on the load applied onto said flooring; - deriving the difference between the calculated upper and lower torques; - determining the cross-section of the single framework depending on said difference and the thickness of said flooring. - consisting in that: - an improvement of the floor intended to receive said flooring is carried out; - above said improvement is carried out a distribution mat; - said mat is covered with a sliding layer; - a non-structural flooring is carried out on said sliding layer; - a single framework is positioned in the upper portion of said flooring, in the first upper third of its thickness; - a fiber-reinforced concrete is poured over the full height of said flooring; - an improvement of the floor intended to receive said flooring is carried out; - above said improvement is carried out a distribution mat; - said mat is covered with a sliding layer; - a non-structural flooring is carried out on said sliding layer; - a single framework is positioned in the upper portion of said flooring, in the first upper third of its thickness; - a fiber-reinforced concrete is poured over the full height of said flooring; - wherein it consists in: - calculating the upper vertical descending torques at the surface of said flooring and the lower vertical descending torques at the lower face of said flooring, depending on the load applied onto said flooring; - deriving the difference between the calculated upper and lower torques; - determining the cross-section of the single framework depending on said difference and the thickness of said flooring. - calculating the upper vertical descending torques at the surface of said flooring and the lower vertical descending torques at the lower face of said flooring, depending on the load applied onto said flooring; - deriving the difference between the calculated upper and lower torques; - determining the cross-section of the single framework depending on said difference and the thickness of said flooring.
A display module, comprising a display screen, an optical fingerprint module and a display screen protective layer, characterized in that the optical fingerprint module is located on a surface of the display screen away from a light-out surface; the optical fingerprint module comprises a sensor, a packaging layer for packaging the sensor and a flexible printed circuit board connected to the sensor; the sensor comprises a fingerprint detection area, the packaging layer packages the sensor with the fingerprint detection area on the sensor exposed; the flexible printed circuit board is configured to transmit a signal detected by the sensor; the display screen protective layer located on the surface of the display screen away from the light-out surface; a through hole is disposed at the display screen protective layer; the display screen protective layer is fixedly connected to the display screen; a vertical projection of the fingerprint detection area of the optical fingerprint module on the light-out surface of the display screen is located inside a display area of the display screen, and light is able to be transmitted through the display screen and the through hole to the fingerprint detection area; the optical fingerprint module is bonded to a middle frame by using a bezel adhesive, wherein a second through hole is disposed at the middle frame; the bezel adhesive is applied around the fingerprint detection area of the sensor and is bonded to the packaging layer; there is a gap between the fingerprint detection area and the display screen. the optical fingerprint module is located on a surface of the display screen away from a light-out surface; the optical fingerprint module comprises a sensor, a packaging layer for packaging the sensor and a flexible printed circuit board connected to the sensor; the sensor comprises a fingerprint detection area, the packaging layer packages the sensor with the fingerprint detection area on the sensor exposed; the flexible printed circuit board is configured to transmit a signal detected by the sensor; the display screen protective layer located on the surface of the display screen away from the light-out surface; a through hole is disposed at the display screen protective layer; the display screen protective layer is fixedly connected to the display screen; a vertical projection of the fingerprint detection area of the optical fingerprint module on the light-out surface of the display screen is located inside a display area of the display screen, and light is able to be transmitted through the display screen and the through hole to the fingerprint detection area; the optical fingerprint module is bonded to a middle frame by using a bezel adhesive, wherein a second through hole is disposed at the middle frame; the bezel adhesive is applied around the fingerprint detection area of the sensor and is bonded to the packaging layer; there is a gap between the fingerprint detection area and the display screen.
Method for operating a device for printing the respective lateral surface of hollow objects, the device comprising at least one mandrel wheel holding hollow objects on projecting expanding mandrels and a transfer wheel for transporting the hollow objects, which is arranged downstream from the mandrel wheel in the transport direction of the hollow objects, the mandrel wheel and the transfer wheel each being rotatably arranged in an offset manner in the axial direction with respect to one another in two different planes that are parallel to one another, hollow objects printed during ongoing production being transferred from the expanding mandrels of the mandrel wheel to the transfer wheel, characterized in that, during the modification of the device from a first production of hollow objects having a first height to a second production of hollow objects having a different second height, the offset in the axial direction between the mandrel wheel and the transfer wheel is adapted to the height of the hollow objects to be printed in the second production by automatically changing the axial position of the transfer wheel relative to the position of the mandrel wheel.
A processing system comprising: an air blower; an air manifold (14A, 14B; 214) comprising a main body (56; 256) having an inlet (40, 240) coupled to the air blower and a plurality of outlet openings (70A-70F), each of the outlet openings (70A-70F) being coupled to a nozzle (42A-42F; 242A-242H); and an ionizer bar comprising a housing, a power cable contained within the housing, and a plurality of emitter pins electrically coupled to the power cable; characterized by comprising a cartridge including two side plates (84, 85) forming a channel in which the ionizer bar is mounted, the cartridge being removably couplable to an interior of the main body (56; 256) of the air manifold (14A, 14B; 214). an air blower; an air manifold (14A, 14B; 214) comprising a main body (56; 256) having an inlet (40, 240) coupled to the air blower and a plurality of outlet openings (70A-70F), each of the outlet openings (70A-70F) being coupled to a nozzle (42A-42F; 242A-242H); and an ionizer bar comprising a housing, a power cable contained within the housing, and a plurality of emitter pins electrically coupled to the power cable; characterized by comprising a cartridge including two side plates (84, 85) forming a channel in which the ionizer bar is mounted, the cartridge being removably couplable to an interior of the main body (56; 256) of the air manifold (14A, 14B; 214).
Graphene-based foam having (a) a density ranging from 0.5 mg/cm 3 to 7 mg/cm 3, and (b) a compression set at 50% compression of 15% or less, the graphene-based foam further having a structure defined by a three-dimensional network of interconnected and ordered open cells, the open cells being defined by cell walls, the cell walls (i) being formed of graphene sheets, partially reduced graphene oxide sheets, reduced graphene oxide sheets, or a combination thereof, and (ii) having a thickness defined by the thickness of a plurality of graphene sheets, partially reduced graphene oxide sheets, reduced graphene oxide sheets, or a combination thereof.
A method for panoramic video stabilization, comprising steps of acquiring a timestamp, an accelerometer value and an angular velocity value of the current state of a portable terminal in real time; performing a noise reduction process using low-pass filtering respectively to the accelerometer value and the angular velocity value with a formula of d i ′ = α ⋅ d i + 1 − α ⋅ d i − 1 ′; where d i represents the accelerometer value or the angular velocity value at time i, d i ′ represents the accelerometer value or the angular velocity value after the noise reduction process using low-pass filtering at time i, and d i − 1 ′ represents the accelerometer value or the angular velocity value after the noise reduction process using the low-pass filtering at time i-1; α is a smoothing factor, α = Δt R c + Δt, Rc = 1 2 πf c, where f c is a cut-off frequency of the low-pass filtering, Rc is a time constant, and Δt is a sampling time interval; estimating a rotation vector of the current state using an Extended Kalman Filtering combined with the accelerometer value and the angular velocity value; calculating a current rotation matrix via the Rodrigues' rotation formula on the basis of the rotation vector of the current state; and rotating a panoramic image on the basis of the current rotation matrix, and producing a stabilized video frame so as to alleviate VR motion sickness. acquiring a timestamp, an accelerometer value and an angular velocity value of the current state of a portable terminal in real time; performing a noise reduction process using low-pass filtering respectively to the accelerometer value and the angular velocity value with a formula of d i ′ = α ⋅ d i + 1 − α ⋅ d i − 1 ′; where d i represents the accelerometer value or the angular velocity value at time i, d i ′ represents the accelerometer value or the angular velocity value after the noise reduction process using low-pass filtering at time i, and d i − 1 ′ represents the accelerometer value or the angular velocity value after the noise reduction process using the low-pass filtering at time i-1; α is a smoothing factor, α = Δt R c + Δt, Rc = 1 2 πf c, where f c is a cut-off frequency of the low-pass filtering, Rc is a time constant, and Δt is a sampling time interval; estimating a rotation vector of the current state using an Extended Kalman Filtering combined with the accelerometer value and the angular velocity value; calculating a current rotation matrix via the Rodrigues' rotation formula on the basis of the rotation vector of the current state; and rotating a panoramic image on the basis of the current rotation matrix, and producing a stabilized video frame so as to alleviate VR motion sickness.
Method for controlling an elevator system, which elevator system comprises: at least one elevator; call-giving devices for giving calls to the elevator system; and a control system that is responsive to the aforementioned calls, which method comprises the phases; a call given by a passenger is registered; an elevator serving the registered call is allocated in a first optimization phase in such a way that a desired first cost function is minimized; the route of the allocated elevator is optimized in a second optimization phase in such a way that a desired second cost function is minimized; the allocated elevator is controlled according to the optimized route; characterized in that the optimized route of an elevator is updated by repeating the second optimization phase during the elevator service.
Temperature-control device for laboratory vessels which is configured to be thermally conditioned in the absence of laboratory vessels before use and, during use, in a finite time period, to absorb the conditioned thermal energy from the laboratory vessels and/or to transfer said thermal energy to the laboratory vessels, with a hollow housing, which has an internal region filled with a temperature-control medium, wherein the housing has a base (3.2) on an underside and a receiving region (3.1) situated opposite thereto on an upper side, the receiving region delimiting the internal region of the housing in a direction toward the upper side and having inwardly directed depressions on its upper side for receiving the laboratory vessels to be temperature-controlled, characterized in that the housing has an air space, that a horizontally extending absorber element is arranged in the internal region of the housing, wherein the temperature-control medium at least partially flows around and/or through the absorber element, and that the absorber element and the receiving region (3.1) are connected in a thermally conductive manner. with a hollow housing, which has an internal region filled with a temperature-control medium, wherein the housing has a base (3.2) on an underside and a receiving region (3.1) situated opposite thereto on an upper side, the receiving region delimiting the internal region of the housing in a direction toward the upper side and having inwardly directed depressions on its upper side for receiving the laboratory vessels to be temperature-controlled, characterized in that the housing has an air space, that a horizontally extending absorber element is arranged in the internal region of the housing, wherein the temperature-control medium at least partially flows around and/or through the absorber element, and that the absorber element and the receiving region (3.1) are connected in a thermally conductive manner.
A machine tool comprising: a base; a tilting rotary table disposed on the base and configured to turn to tilt a table face of a rotary table; and a tool spindle rotatable about a vertical axis line and movable in an X axis direction, which is a right-left machine direction, in a Y axis direction, which is a front-rear machine direction, and in a Z axis direction, which is vertical direction, the X axis direction, the Y axis direction, and the Z axis direction being orthogonal to each other, wherein the tilting rotary table comprises a tilting shaft oriented in the front-rear machine direction, and wherein a recessed area is disposed on a front surface of the machine tool, the recessed area being adjacent to a support supporting the tilting shaft, characterized in that an inner cover (130, 260) configured to cover top of the recessed area is disposed on and integral with a slide door (100, 200, 400) configured to cover the front surface of the machine tool in a manner that is openable and closable, when the slide door (100, 200, 400) is opened, the recessed area defines a work area, and when the slide door (100, 200, 400) is closed, the top of the recessed area is covered by the inner cover of the slide door (100, 200, 400) and the recessed area is disposed inside the machine tool. a base; a tilting rotary table disposed on the base and configured to turn to tilt a table face of a rotary table; and a tool spindle rotatable about a vertical axis line and movable in an X axis direction, which is a right-left machine direction, in a Y axis direction, which is a front-rear machine direction, and in a Z axis direction, which is vertical direction, the X axis direction, the Y axis direction, and the Z axis direction being orthogonal to each other, wherein the tilting rotary table comprises a tilting shaft oriented in the front-rear machine direction, and wherein a recessed area is disposed on a front surface of the machine tool, the recessed area being adjacent to a support supporting the tilting shaft, characterized in that an inner cover (130, 260) configured to cover top of the recessed area is disposed on and integral with a slide door (100, 200, 400) configured to cover the front surface of the machine tool in a manner that is openable and closable, when the slide door (100, 200, 400) is opened, the recessed area defines a work area, and when the slide door (100, 200, 400) is closed, the top of the recessed area is covered by the inner cover of the slide door (100, 200, 400) and the recessed area is disposed inside the machine tool.
A method of preparing an anion exchange membrane characterized by substituting sulfonic acid groups in a perfluorinated sulfonic acid electrolyte membrane with ammonium groups, which are anion-conductive functional groups, the method comprising: a) chlorinating sulfonic acid groups in a perfluorinated sulfonic acid electrolyte membrane; b) nitrating the chlorinated electrolyte membrane; c) aminating the nitrated electrolyte membrane; and d) activating the anion-conductive functional groups by treating the aminated electrolyte membrane under alkaline conditions. a) chlorinating sulfonic acid groups in a perfluorinated sulfonic acid electrolyte membrane; b) nitrating the chlorinated electrolyte membrane; c) aminating the nitrated electrolyte membrane; and d) activating the anion-conductive functional groups by treating the aminated electrolyte membrane under alkaline conditions.