mhurhangee/ep-ind-claims huggingface dataset:
A remotely controllable handling device for handling material in a cell comprising: a base module comprising a frame supporting: - connector means for support of the handling device by a support structure outside the cell, - extendable fixing means comprising two or more extendable arms able to engage the walls of a cell for blocking said handling device in place, - a tool support; at least one tool unit mounted to said tool support; and a vision member characterized by force and/or position sensors associated with each of said extendable arms. a base module comprising a frame supporting: - connector means for support of the handling device by a support structure outside the cell, - extendable fixing means comprising two or more extendable arms able to engage the walls of a cell for blocking said handling device in place, - a tool support; - connector means for support of the handling device by a support structure outside the cell, - extendable fixing means comprising two or more extendable arms able to engage the walls of a cell for blocking said handling device in place, - a tool support; at least one tool unit mounted to said tool support; and a vision member characterized by force and/or position sensors associated with each of said extendable arms.
A compound of formula: wherein R 1 is a 2-pyridyl group, a 3-pyridyl group or a 4-pyridyl group, all of which groups may optionally be substituted by 1, 2 or 3 substituents that are independently selected from a C 1-6 alkyl group, a C 1-6 alkoxy group, a Ci-6 alkylthio group and a halogen atom; R 2 is a group of formula -NR 4 R 5, and R 3 is a halogen atom; or R 2 is a halogen atom, and R 3 is a group of formula -NR 4 R 5; R 4 is a C 1-6 alkyl group; and R 5 is a C 1-6 alkyl group; or R 4 and R 5 together with the nitrogen atom to which they are bound form a heterocycloalkyl group comprising 5 or 6 ring atoms that are independently selected from C, N, S and O, which heterocycloalkyl group may optionally be substituted by 1, 2 or 3 substituents that are independently selected from a C 1-6 alkyl group, a C 1-6 alkoxy group, a hydroxy C 1-6 alkyl group and a hydroxy group; or a salt, solvate or hydrate thereof; wherein the expression "C 1-6 alkyl" refers to a saturated, straight-chain or branched or cyclic hydrocarbon group that contains from 1 to 6 carbon atoms. R 1 is a 2-pyridyl group, a 3-pyridyl group or a 4-pyridyl group, all of which groups may optionally be substituted by 1, 2 or 3 substituents that are independently selected from a C 1-6 alkyl group, a C 1-6 alkoxy group, a Ci-6 alkylthio group and a halogen atom; R 2 is a group of formula -NR 4 R 5, and R 3 is a halogen atom; or R 2 is a halogen atom, and R 3 is a group of formula -NR 4 R 5; R 4 is a C 1-6 alkyl group; and R 5 is a C 1-6 alkyl group; or R 4 and R 5 together with the nitrogen atom to which they are bound form a heterocycloalkyl group comprising 5 or 6 ring atoms that are independently selected from C, N, S and O, which heterocycloalkyl group may optionally be substituted by 1, 2 or 3 substituents that are independently selected from a C 1-6 alkyl group, a C 1-6 alkoxy group, a hydroxy C 1-6 alkyl group and a hydroxy group; or a salt, solvate or hydrate thereof; wherein the expression "C 1-6 alkyl" refers to a saturated, straight-chain or branched or cyclic hydrocarbon group that contains from 1 to 6 carbon atoms.
A method for constructing a layered element from a plurality of layers made from a flowable material that are arranged on top of each other on a construction platform within a construction field, wherein the layers are in particular made from a particle material and solidified and connected with each other in locally predetermined portions through an impact of a binder so that the solidified and connected portions of the layers form at least one form element, wherein an output device with at least on output opening is moved back and forth above the construction field in at least one output direction, wherein the flowable material is put out from the output opening in individual layers that are arranged on top of each other during the movement of the output device, characterized in that at least one body (8, 8a) defining the construction field in at least one output direction of the output device and the construction platform are adjusted relative to each other in a vertical direction according to a respective progress of the layered element so that a surface of the at least one body (8, 8a) that is oriented towards the output opening is aligned flush with an upper layer of the layer element which upper layer still has to be constructed or that has already been constructed in order to close the output opening of the output device and to prevent the output opening from putting out the flowable material or to capture a flow able material that has not been consumed for the layer construction when the output opening is arranged above the at least one element (8, 8a).
A sheath for a medical device, comprising: an elongate body extending from a proximal end to a distal face; a first hollow lumen and a second hollow lumen extending from a first end proximate the proximal end to a second end proximate the distal face; at least one lighting device (28; 128; 228; 328; 428; 528) positioned in the sheath proximate the distal face; a transparent window positioned at the second end of the first lumen to seal the first lumen at the second end, the transparent window being configured to transmit light therethrough; and a second transparent window positioned at the second end of the second lumen to seal the second lumen at the second end, the transparent window being configured to transmit light therethrough. an elongate body extending from a proximal end to a distal face; a first hollow lumen and a second hollow lumen extending from a first end proximate the proximal end to a second end proximate the distal face; at least one lighting device (28; 128; 228; 328; 428; 528) positioned in the sheath proximate the distal face; a transparent window positioned at the second end of the first lumen to seal the first lumen at the second end, the transparent window being configured to transmit light therethrough; and a second transparent window positioned at the second end of the second lumen to seal the second lumen at the second end, the transparent window being configured to transmit light therethrough.
A device comprising: an integrated circuit (150,350) comprising a key-based block cipher circuit, the integrated circuit configured to perform encryption/decryption using the block cipher circuit, and perform a plurality of different types of key management functions; wherein the block cipher circuit comprises a plurality of pipelined rounds, wherein the pipelined rounds are arranged to provide a plurality of stages of encryption/decryption; wherein the block cipher circuit includes an instance of each stage per round to handle both encryption and decryption; wherein meta-information accompanies data as the data passes from round to round and from stage to stage within a round; wherein the meta-information allows each round to operate under different parameters rather than requiring all of the pipelined rounds to operate under the same parameters until completion of a specified encryption/decryption operation; and wherein the block cipher circuit is run-time scalable with respect to how many of the rounds are active and how many passes through the rounds are needed to encrypt a data block. an integrated circuit (150,350) comprising a key-based block cipher circuit, the integrated circuit configured to perform encryption/decryption using the block cipher circuit, and perform a plurality of different types of key management functions; wherein the block cipher circuit comprises a plurality of pipelined rounds, wherein the pipelined rounds are arranged to provide a plurality of stages of encryption/decryption; wherein the block cipher circuit includes an instance of each stage per round to handle both encryption and decryption; wherein meta-information accompanies data as the data passes from round to round and from stage to stage within a round; wherein the meta-information allows each round to operate under different parameters rather than requiring all of the pipelined rounds to operate under the same parameters until completion of a specified encryption/decryption operation; and wherein the block cipher circuit is run-time scalable with respect to how many of the rounds are active and how many passes through the rounds are needed to encrypt a data block.
An image processing apparatus comprising: first image obtaining means for obtaining a first image of an object in a first shape state; imaging region setting means for setting an imaging region of the object in a second shape state; deformation information obtaining means for obtaining deformation information indicating deformation of the object from the second shape state to the first shape state; corresponding region calculating means for calculating a corresponding region that corresponds to the imaging region in the first shape state based on the deformation information; and display image generating means for generating a display image by overlapping the corresponding region on the first image before imaging the object in the second shape state, wherein the imaging region setting means outputs information of the imaging region to a medical imaging apparatus in order to image the imaging region of the object in the second shape state. first image obtaining means for obtaining a first image of an object in a first shape state; imaging region setting means for setting an imaging region of the object in a second shape state; deformation information obtaining means for obtaining deformation information indicating deformation of the object from the second shape state to the first shape state; corresponding region calculating means for calculating a corresponding region that corresponds to the imaging region in the first shape state based on the deformation information; and display image generating means for generating a display image by overlapping the corresponding region on the first image before imaging the object in the second shape state, wherein the imaging region setting means outputs information of the imaging region to a medical imaging apparatus in order to image the imaging region of the object in the second shape state.
A utilisation of an insert sheet (40, 140) in a toilet rim block cage (11, 111), said toilet rim block cage (11, 111) having a first (12, 112) and a second (13, 113) cage wall, with a cleaning agent being disposed between the first (12, 112) and second (13, 113) cage walls and the outward-facing visible surface (16, 116) of the first cage wall (12, 112) pointing toward the interior of the toilet bowl once the cage has been fastened to said toilet bowl, the insert sheet (40, 140) being provided between the cleaning agent and the first (12, 112) and/or second (13, 113) cage wall(s), with the insert sheet (40, 140) being water-insoluble, characterised in that the visible surface includes visible information to be viewed by a user, said information being provided in the form of images, illustrations, colours, texts, comic strips, or holograms, and in that the insert sheet (40, 140) is designed to convey an appealing appearance to the toilet rim block cage (11, 111) throughout the lifetime of the cleaning agent.
Method for automatically correcting the position of a track, formed from rails and sleepers, with a track tamping machine, characterised by the following steps: • measuring the left and right rails of a track section independently of one another so as to determine and record the actual height position (F LI, F RE), the track direction and the track superelevation (u(n)) by means of an inertial measuring unit and a computing and control unit, • determining a starting point and an end point of a tamping of an individual fault - to be corrected - in each case of the left rail and of the right rail (H(n)) taking into account a limit value of the individual faults (F LIM) and a maximum extension in a longitudinal direction of the track (s max), • selecting the starting point depending upon the progression of the individual fault of the rail which is closer and selecting the end point depending upon the progression of the individual fault of the rail which is furthest away in the longitudinal direction, • defining a height reference line in each case for the left rail (REF LI) and right rail (REF RE) taking into account the superelevation; • positioning the tamping units of a tamping machine exactly at the starting point of the tamping of the individual fault (H(n)) of the determined track correction section (TAMP), wherein both rail sections (F LI, F RE) are corrected simultaneously and, in addition to the individual longitudinal height faults, the track direction is also corrected, and wherein the tamping is terminated at the end point. • measuring the left and right rails of a track section independently of one another so as to determine and record the actual height position (F LI, F RE), the track direction and the track superelevation (u(n)) by means of an inertial measuring unit and a computing and control unit, • determining a starting point and an end point of a tamping of an individual fault - to be corrected - in each case of the left rail and of the right rail (H(n)) taking into account a limit value of the individual faults (F LIM) and a maximum extension in a longitudinal direction of the track (s max), • selecting the starting point depending upon the progression of the individual fault of the rail which is closer and selecting the end point depending upon the progression of the individual fault of the rail which is furthest away in the longitudinal direction, • defining a height reference line in each case for the left rail (REF LI) and right rail (REF RE) taking into account the superelevation; • positioning the tamping units of a tamping machine exactly at the starting point of the tamping of the individual fault (H(n)) of the determined track correction section (TAMP), wherein both rail sections (F LI, F RE) are corrected simultaneously and, in addition to the individual longitudinal height faults, the track direction is also corrected, and wherein the tamping is terminated at the end point.
A method of connecting a first threaded tubular to a second threaded tubular, comprising: engaging the threads of the tubulars; rotating the first tubular relative to the second tubular to makeup a threaded connection; during makeup of the threaded connection: measuring time; measuring torque applied to the connection; and measuring turns of the first tubular; using a controller for: evaluating at least one of the measured turns, measured torque, and measured time for a discontinuity, wherein the discontinuity is a result of equipment malfunction; and accepting or rejecting the connection based on the evaluation. engaging the threads of the tubulars; rotating the first tubular relative to the second tubular to makeup a threaded connection; during makeup of the threaded connection: measuring time; measuring torque applied to the connection; and measuring turns of the first tubular; measuring time; measuring torque applied to the connection; and measuring turns of the first tubular; using a controller for: evaluating at least one of the measured turns, measured torque, and measured time for a discontinuity, wherein the discontinuity is a result of equipment malfunction; and accepting or rejecting the connection based on the evaluation. evaluating at least one of the measured turns, measured torque, and measured time for a discontinuity, wherein the discontinuity is a result of equipment malfunction; and accepting or rejecting the connection based on the evaluation.
An axial flow machine comprising: an annular flow path; a stator ring comprising a plurality of stators mounted at their radially outer ends and extending into the annular flow path; a non-rotating body axially adjacent the stator ring; an annular shroud disposed between the radially inner end of the stator ring and the body; wherein the shroud is supported on the stator ring and moveable relative the body; and wherein the shroud cooperates with the body to inhibit a flow through a clearance pathway therebetween; characterised in that the stator ring, shroud and body are configured so that, when coaxially arranged, there is a first radial clearance between the stator ring and the shroud which is less than a second radial clearance between the shroud and the body. an annular flow path; a stator ring comprising a plurality of stators mounted at their radially outer ends and extending into the annular flow path; a non-rotating body axially adjacent the stator ring; an annular shroud disposed between the radially inner end of the stator ring and the body; wherein the shroud is supported on the stator ring and moveable relative the body; and wherein the shroud cooperates with the body to inhibit a flow through a clearance pathway therebetween; characterised in that the stator ring, shroud and body are configured so that, when coaxially arranged, there is a first radial clearance between the stator ring and the shroud which is less than a second radial clearance between the shroud and the body.
A tray for holding contact lens mold assemblies during thermal curing of a contact lens precursor material in an oven to form contact lenses, wherein the tray comprises: (a) a plurality of plates; and (b) a frame supporting the plates, the frame being configured to co-operate with identical frames so that a plurality of the trays can be stacked vertically to form a tray stack; wherein each plate comprises: (i) a plurality of support structures each arranged to support one contact lens mold assembly during curing; and (ii) a plurality of channels (90, 100) connecting the support structures, to allow fluid communication between the support structures in the tray stack during curing; and wherein each plate is a carbon-fiber reinforced polymer plate. (a) a plurality of plates; and (b) a frame supporting the plates, the frame being configured to co-operate with identical frames so that a plurality of the trays can be stacked vertically to form a tray stack; (i) a plurality of support structures each arranged to support one contact lens mold assembly during curing; and (ii) a plurality of channels (90, 100) connecting the support structures, to allow fluid communication between the support structures in the tray stack during curing;
A computer-readable medium having stored thereon computer-readable instructions that when executed by a controller cause the controller to: receive a sound signal from a sound generating device; characterized in that: determine a level of the received sound signal; and when the determined level is below a predetermined threshold: determine a frequency of the received sound signal; and when the determined frequency is within a predetermined frequency range, start recording the received sound signal; and when the determined level is above the predetermined threshold: start recording the received sound signal. receive a sound signal from a sound generating device; characterized in that: determine a level of the received sound signal; and when the determined level is below a predetermined threshold: determine a frequency of the received sound signal; and when the determined frequency is within a predetermined frequency range, start recording the received sound signal; and when the determined level is above the predetermined threshold: start recording the received sound signal. determine a level of the received sound signal; and when the determined level is below a predetermined threshold: determine a frequency of the received sound signal; and when the determined frequency is within a predetermined frequency range, start recording the received sound signal; and when the determined level is above the predetermined threshold: start recording the received sound signal. determine a frequency of the received sound signal; and when the determined frequency is within a predetermined frequency range, start recording the received sound signal; and when the determined level is above the predetermined threshold: start recording the received sound signal.
A particle grinder, comprising: a stator and rotor arrangement, wherein the rotor has a plurality of stacked rows of impact elements, each row of impact elements includes at least one impact element radially extending away from a rotor collecting unit; an inlet port and a discharge port located below said plurality of stacked rows of impact elements; an outlet port located above said plurality of stacked rows of impact elements; and an outlet port adapter that is configured to be selectively rotated to change the position of said outlet port in relation to a center of said rotor collecting unit. a stator and rotor arrangement, wherein the rotor has a plurality of stacked rows of impact elements, each row of impact elements includes at least one impact element radially extending away from a rotor collecting unit; an inlet port and a discharge port located below said plurality of stacked rows of impact elements; an outlet port located above said plurality of stacked rows of impact elements; and an outlet port adapter that is configured to be selectively rotated to change the position of said outlet port in relation to a center of said rotor collecting unit.