mhurhangee/patent-ind-claim-en huggingface dataset:
A method for repairing of an abradable material coating on a steam turbine stationary component , the method comprising: removing only a portion of a used abradable material layer on a metal sealing surface of a first component that interacts with an abradable sealing element extending from a second component , the first and second component sealingly moving relative to one another in an operative state; and thermal spray coating a new abradable material layer on the used abradable material layer , after the removing; wherein a combined thickness of the used abradable material layer and the new abradable material layer is thicker than an initial thickness of the used abradable material layer prior to use thereof, the method being characterised in that the combined thickness is 2.0 millimeters (mm) to 4.5 mm, and the initial thickness is no greater than 1 mm. removing only a portion of a used abradable material layer on a metal sealing surface of a first component that interacts with an abradable sealing element extending from a second component , the first and second component sealingly moving relative to one another in an operative state; and thermal spray coating a new abradable material layer on the used abradable material layer , after the removing; wherein a combined thickness of the used abradable material layer and the new abradable material layer is thicker than an initial thickness of the used abradable material layer prior to use thereof, the method being characterised in that the combined thickness is 2.0 millimeters (mm) to 4.5 mm, and the initial thickness is no greater than 1 mm.
A rotary electric machine comprising a stator and a rotor , the rotor including a rotor core which is made up of electromagnetic steel sheets laminated in an axial direction; permanent magnets which are axially inserted in the rotor core ; a shaft going through a radial center of the rotor core and serving as an axis of rotation; a first rotor end plate formed of a non-magnetic material and a second rotor end plate formed of an iron material being installed in an axial direction onto one end of the rotor core ; and a third rotor end plate formed of an iron material and a fourth rotor end plate formed of a non-magnetic material being installed in a radial direction onto the other end of the rotor core , characterised in that the first rotor end plate is installed axially inward with respect to the second rotor end plate with the first rotor end plate in contact with the permanent magnets and the fourth rotor end plate is installed radially outward with respect to the third rotor end plate with the fourth rotor end plate in contact with the permanent magnets the rotor including a rotor core which is made up of electromagnetic steel sheets laminated in an axial direction; permanent magnets which are axially inserted in the rotor core ; a shaft going through a radial center of the rotor core and serving as an axis of rotation; a first rotor end plate formed of a non-magnetic material and a second rotor end plate formed of an iron material being installed in an axial direction onto one end of the rotor core ; and a third rotor end plate formed of an iron material and a fourth rotor end plate formed of a non-magnetic material being installed in a radial direction onto the other end of the rotor core , characterised in that the first rotor end plate is installed axially inward with respect to the second rotor end plate with the first rotor end plate in contact with the permanent magnets and the fourth rotor end plate is installed radially outward with respect to the third rotor end plate with the fourth rotor end plate in contact with the permanent magnets
Rotary damper comprising a housing , a damper shaft rotatably accommodated thereat, a displacing device in the housing , and at least one magnetic field source , the displacing device comprising a damper volume with magnetorheological fluid as a working fluid by means of which it can operate to influence the damping of the rotary motion of the damper shaft relative to the housing , the displacing device comprising at least two partition units which subdivide the damper volume into at least two variable chambers , wherein at least one of the partition units comprises a partition wall connected with the housing , and wherein at least one of the partition units comprises a partition wall connected with the damper shaft , wherein a gap section is configured in the radial direction between the partition unit connected with the housing and the damper shaft , and wherein a gap section is configured in the radial direction between the partition unit connected with the damper shaft and the housing , and wherein at least one gap section is configured in the axial direction between the partition unit connected with the damper shaft and the housing , wherein the magnetic field source comprises at least one controllable electric coil for influencing the strength of the magnetic field and thus the strength of damping, and wherein at least a substantial part of the magnetic field of the magnetic field source passes through at least two of the indicated gap sections (25-27), and simultaneously influences at least the two gap sections in dependence on the strength of the magnetic field, characterized in that at least one of the gap sections is configured as a damping gap and at least one of the gap sections , as a sealing gap, and wherein at least one damping gap shows a larger gap height than does a sealing gap.
A computer-implemented method for facilitating processing within a computing environment, the method comprising: obtaining an instruction for execution, the instruction to perform a multiply and shift operation; and executing the instruction, the executing comprising: multiplying a first value and a second value obtained by the instruction to obtain a product; shifting the product in a specified direction by a selected amount to provide a result, the selected amount being user-defined; and placing the result in a selected location, the result to be used in processing within the computing environment. obtaining an instruction for execution, the instruction to perform a multiply and shift operation; and executing the instruction, the executing comprising: multiplying a first value and a second value obtained by the instruction to obtain a product; shifting the product in a specified direction by a selected amount to provide a result, the selected amount being user-defined; and placing the result in a selected location, the result to be used in processing within the computing environment. multiplying a first value and a second value obtained by the instruction to obtain a product; shifting the product in a specified direction by a selected amount to provide a result, the selected amount being user-defined; and placing the result in a selected location, the result to be used in processing within the computing environment.
An additive manufacturing system comprising: a coalescing agent distributor or an interface to receive the coalescing agent distributor , the coalescing agent distributor configured to selectively deliver coalescing agent onto portions of successive layers of build material at a first contone density and at a second contone density different from the first contone density; a controller configured to control the coalescing agent distributor to selectively deliver the coalescing agent at the first and second contone densities respectively onto an interior portion and a surface portion of the layers in respective first and second patterns in accordance with data representing a three-dimensional object to be generated, so that the build material is to solidify to form slices of the three-dimensional object in accordance with the first and second patterns, and so that the three-dimensional object is to achieve a target surface roughness as a result of the second contone density of the second pattern; wherein a said contone density is the spatial density at which drops of coalescing agent are delivered to portions of the build material; and wherein the second contone density is lower than the first contone density, the second contone density having more spacing between drops than the first contone density. a coalescing agent distributor or an interface to receive the coalescing agent distributor , the coalescing agent distributor configured to selectively deliver coalescing agent onto portions of successive layers of build material at a first contone density and at a second contone density different from the first contone density; a controller configured to control the coalescing agent distributor to selectively deliver the coalescing agent at the first and second contone densities respectively onto an interior portion and a surface portion of the layers in respective first and second patterns in accordance with data representing a three-dimensional object to be generated, so that the build material is to solidify to form slices of the three-dimensional object in accordance with the first and second patterns, and so that the three-dimensional object is to achieve a target surface roughness as a result of the second contone density of the second pattern; wherein a said contone density is the spatial density at which drops of coalescing agent are delivered to portions of the build material; and wherein the second contone density is lower than the first contone density, the second contone density having more spacing between drops than the first contone density.
A method of operating a Binary Phase Shift Keying BPSK modulator, the method comprising: - receiving an RF signal at the Binary Phase Shift Keying BPSK modulator; - splitting the RF signal into a first portion and a second portion that is inverted with respect to the first portion; - receiving the first portion at a first arm of the Binary Phase Shift Keying BPSK modulator; - receiving the second portion at a second arm of the Binary Phase Shift Keying BPSK modulator; - applying a first tone to the first arm of the Binary Phase Shift Keying BPSK modulator; - applying a second tone to the second arm of the Binary Phase Shift Keying BPSK modulator; - measuring a power associated with an output of the Binary Phase Shift Keying BPSK modulator, wherein measuring the power associated with the output of the BPSK modulator comprises spectrally filtering the output; and - adjusting a phase applied to at least one of the first arm of the Binary Phase Shift Keying BPSK modulator or the second arm of the Binary Phase Shift Keying BPSK modulator in response to the measured power. - receiving an RF signal at the Binary Phase Shift Keying BPSK modulator; - splitting the RF signal into a first portion and a second portion that is inverted with respect to the first portion; - receiving the first portion at a first arm of the Binary Phase Shift Keying BPSK modulator; - receiving the second portion at a second arm of the Binary Phase Shift Keying BPSK modulator; - applying a first tone to the first arm of the Binary Phase Shift Keying BPSK modulator; - applying a second tone to the second arm of the Binary Phase Shift Keying BPSK modulator; - measuring a power associated with an output of the Binary Phase Shift Keying BPSK modulator, wherein measuring the power associated with the output of the BPSK modulator comprises spectrally filtering the output; and - adjusting a phase applied to at least one of the first arm of the Binary Phase Shift Keying BPSK modulator or the second arm of the Binary Phase Shift Keying BPSK modulator in response to the measured power.
An article, comprising: SiO 2 from 40 mol% to 80 mol%; Al 2 O 3 from 1 mol% to 20 mol%; B 2 O 3 from 3 mol% to 50 mol%; WO 3 plus MoOs from 1 mol% to 18 mol%; at least one of: (i) Au from 0.001 mol% to 0.5 mol%, (ii) Ag from 0.025 mol% to 1.5 mol%, and (iii) Cu from 0.03 mol% to 1 mol%; and R 2 O from 0 mol% to 15 mol%, wherein the R 2 O is one or more of Li 2 O, Na 2 O, K 2 O, Rb 2 O and Cs 2 O, wherein R 2 O minus Al 2 O 3 ranges from -12 mol% to 3.8 mol%. SiO 2 from 40 mol% to 80 mol%; Al 2 O 3 from 1 mol% to 20 mol%; B 2 O 3 from 3 mol% to 50 mol%; WO 3 plus MoOs from 1 mol% to 18 mol%; at least one of: (i) Au from 0.001 mol% to 0.5 mol%, (ii) Ag from 0.025 mol% to 1.5 mol%, and (iii) Cu from 0.03 mol% to 1 mol%; and R 2 O from 0 mol% to 15 mol%, wherein the R 2 O is one or more of Li 2 O, Na 2 O, K 2 O, Rb 2 O and Cs 2 O, wherein R 2 O minus Al 2 O 3 ranges from -12 mol% to 3.8 mol%.
A robotic climbing platform comprising: a chassis and a carriage adapted to support and move the chassis relative to a climbing surface, and an adhesion mechanism adapted to provide an adhesion force between the climbing platform and the climbing surface, the adhesion mechanism comprising one or more suction pads and a control system effective to adhere the one or more suction pads to the climbing surface characterised in that the robotic climbing platform comprises: one or more wheels or tracks , and a motor adapted to drive one or more wheels or tracks to move the chassis on the climbing surface, and an actuator or actuators each having a first end connected to the chassis and another end connected to the suction pad or pads adapted to cause movement of one or more suction pads toward the climbing surface by application of a first force, such that the one or more suction pad(s) contact the climbing surface and evacuate(s) between the one or more suction pad(s) and the climbing surface, and cause movement of the one or more suction pad(s) toward the chassis by application of a second force such that a seal is achieved between the climbing surface and the one or more suction pad(s) effective to adhere the platform to the climbing surface and retain an adhesion force between the climbing platform and the climbing surface during movement, while allowing sliding movement of the one or more suction pad(s) on the climbing surface as the one or more wheels or tracks and motor operate to move the platform on the climbing surface. one or more wheels or tracks , and a motor adapted to drive one or more wheels or tracks to move the chassis on the climbing surface, and an actuator or actuators each having a first end connected to the chassis and another end connected to the suction pad or pads adapted to cause movement of one or more suction pads toward the climbing surface by application of a first force, such that the one or more suction pad(s) contact the climbing surface and evacuate(s) between the one or more suction pad(s) and the climbing surface, and cause movement of the one or more suction pad(s) toward the chassis by application of a second force such that a seal is achieved between the climbing surface and the one or more suction pad(s) effective to adhere the platform to the climbing surface and retain an adhesion force between the climbing platform and the climbing surface during movement, while allowing sliding movement of the one or more suction pad(s) on the climbing surface as the one or more wheels or tracks and motor operate to move the platform on the climbing surface.
System comprising: - a cable comprising a core and a sheath encircling the core , one end of this core being intended to be connected to a connector , - a sealing sleeve encircling the core , comprising a first end (i1) fixed to the cable , and a second end (i2), opposite the first end (i1), intended to cover at least part of the connector receiving the core , characterized in that the first end (i1) comprises a ring arranged between the sheath and the core over a predetermined length (L3). - a cable comprising a core and a sheath encircling the core , one end of this core being intended to be connected to a connector , - a sealing sleeve encircling the core , comprising a first end (i1) fixed to the cable , and a second end (i2), opposite the first end (i1), intended to cover at least part of the connector receiving the core ,
A biological detection device , adapted to detect at least one test cassette , wherein the biological detection device comprises: a control module ; a bearing rotatable plate , having a main rotating shaft ; a first driving module , electrically connected to the control module and connected to the main rotating shaft , and adapted for the bearing rotatable plate to rotate about the main rotating shaft ; at least one rotatable sub-plate , having at least one independent rotating shaft different from the main rotating shaft , wherein each of the rotatable sub-plate is disposed on the bearing rotatable plate and independently rotatable about the respective independent rotating shaft ; at least one second driving module , electrically connected to the control module , so that the at least one rotatable sub-plate rotates about the at least one independent rotating shaft ; characterized in that a weight member is disposed on the bearing rotatable plate ; and a driving module is electrically connected to the control module and connected to the weight member , so that the weight member rotates relative to the bearing rotatable plate . a control module ; a bearing rotatable plate , having a main rotating shaft ; a first driving module , electrically connected to the control module and connected to the main rotating shaft , and adapted for the bearing rotatable plate to rotate about the main rotating shaft ; at least one rotatable sub-plate , having at least one independent rotating shaft different from the main rotating shaft , wherein each of the rotatable sub-plate is disposed on the bearing rotatable plate and independently rotatable about the respective independent rotating shaft ; at least one second driving module , electrically connected to the control module , so that the at least one rotatable sub-plate rotates about the at least one independent rotating shaft ; characterized in that a weight member is disposed on the bearing rotatable plate ; and a driving module is electrically connected to the control module and connected to the weight member , so that the weight member rotates relative to the bearing rotatable plate .
An insertion device for a mold to form at least one recess in a casting , in particular an opening and/or depression , wherein the casting has at least two mold halves (32', 32"), wherein the insertion device comprises a housing with a receiving room and at least one retaining device for retaining the housing on at least one of the mold halves (32', 32"), which is arranged in the receiving room , wherein the housing has at least one outer mold that at least sectionally defines the shape of the at least one recess of the casting , and the retaining device comprises at least one magnet (15', 15"), which magnetically fixes the housing to the mold half (32', 32") during use.
A method for wireless communication, comprising: transmitting, by a wireless device over a control channel, an M-bit payload using N symbols, wherein M and N are positive integers, wherein each of the N symbols is represented using a base sequence u ( n , m ) and a cyclic shift n cs ( n , m ) of the base sequence, wherein n = 0, 1, ... (N-1) indexes a symbol in the N symbols, wherein m = 0, 1, ... (2 M -1) indexes a combination set m {< u ( n , m ), n cs ( n , m )>, n = 0, 1, 2, ..., N-1} of the base sequence and the cyclic shift, wherein m and n are non-negative integers, and: the cyclic shift ( n cs (n, m )) of the base sequence is determined as: n cs ( n , m ) = M ( T cs ( n , m)), wherein M (·) outputs the cyclic shift of its argument, T cs n m = mod Y n B , or mod Y n + m ′ B , Y n = mod AY n − 1 D , Y − 1 = m + C , wherein Y i is an i-th symbol, and wherein A, B, C, D, and n' are positive integers. transmitting, by a wireless device over a control channel, an M-bit payload using N symbols, wherein M and N are positive integers, wherein each of the N symbols is represented using a base sequence u ( n , m ) and a cyclic shift n cs ( n , m ) of the base sequence, wherein n = 0, 1, ... (N-1) indexes a symbol in the N symbols, wherein m = 0, 1, ... (2 M -1) indexes a combination set m {< u ( n , m ), n cs ( n , m )>, n = 0, 1, 2, ..., N-1} of the base sequence and the cyclic shift, wherein m and n are non-negative integers, and: the cyclic shift ( n cs (n, m )) of the base sequence is determined as: n cs ( n , m ) = M ( T cs ( n , m)), wherein M (·) outputs the cyclic shift of its argument, T cs n m = mod Y n B , or mod Y n + m ′ B , Y n = mod AY n − 1 D , Y − 1 = m + C , wherein Y i is an i-th symbol, and wherein A, B, C, D, and n' are positive integers. n cs ( n , m ) = M ( T cs ( n , m)), wherein M (·) outputs the cyclic shift of its argument, T cs n m = mod Y n B , or mod Y n + m ′ B , Y n = mod AY n − 1 D , Y − 1 = m + C , wherein Y i is an i-th symbol, and wherein A, B, C, D, and n' are positive integers.
A first vane stage platform cooling system of a high pressure turbine of a gas turbine engine , comprising: a vane platform ; a combustor inner shell located forward of the vane platform, the combustor inner shell defining an impingement hole ; a combustor panel coupled to the combustor inner shell; and a cavity located between the combustor inner shell and the combustor panel, characterised in that the vane platform cooling system further comprises: an orifice formed in a forward end of the vane platform; a first aperture formed in a surface of the vane platform; and a first channel formed through the vane platform and fluidly connecting the orifice and the first aperture; and in that a surface defining the cavity is angled toward the combustor inner shell such that air exiting an aft end of the cavity is directed away from a gap defined by the vane platform and the aft end of the combustor panel. a vane platform ; a combustor inner shell located forward of the vane platform, the combustor inner shell defining an impingement hole ; a combustor panel coupled to the combustor inner shell; and a cavity located between the combustor inner shell and the combustor panel, characterised in that the vane platform cooling system further comprises: an orifice formed in a forward end of the vane platform; a first aperture formed in a surface of the vane platform; and a first channel formed through the vane platform and fluidly connecting the orifice and the first aperture; and in that a surface defining the cavity is angled toward the combustor inner shell such that air exiting an aft end of the cavity is directed away from a gap defined by the vane platform and the aft end of the combustor panel. an orifice formed in a forward end of the vane platform; a first aperture formed in a surface of the vane platform; and a first channel formed through the vane platform and fluidly connecting the orifice and the first aperture; and in that a surface defining the cavity is angled toward the combustor inner shell such that air exiting an aft end of the cavity is directed away from a gap defined by the vane platform and the aft end of the combustor panel.
A method for manufacturing a pelletised mineral product, the method comprising: in a first mixing step , forming a first mixture by mixing the mineral with non-gelatinised starch under conditions that are insufficient to substantially gelatinise the starch; in a second mixing step , forming a second mixture by mixing the first mixture under conditions that are sufficient to substantially gelatinise the starch comprised within the first mixture; and forming the second mixture into pellets . in a first mixing step , forming a first mixture by mixing the mineral with non-gelatinised starch under conditions that are insufficient to substantially gelatinise the starch; in a second mixing step , forming a second mixture by mixing the first mixture under conditions that are sufficient to substantially gelatinise the starch comprised within the first mixture; and forming the second mixture into pellets .