mhurhangee/ep-ind-claims huggingface dataset:
A component mounting line configured from multiple component mounting machines on which a component supply unit is detachably set that are configured to mount components supplied by the component supply unit on a mounting target, the multiple component mounting machines being arranged along a conveyance direction of the mounting target, the component mounting line comprising: a unit storage container configured to store multiple of the component supply units, a unit exchanging device configured to exchange the component supply unit attached to the multiple component mounting machines with the component supply unit stored in the unit storage container; and a control device configured to control the unit exchanging device, wherein the unit storage container is installed at an upstream position that is further upstream than all the component mounting machines in an arrangement direction of the multiple component mounting machines or at a downstream position that is further downstream than all of the component mounting machines in the arrangement direction of the multiple component mounting machines or at an intermediate position that is between any two of the multiple component mounting machines, and the control device (59,80) is configured to control the unit exchanging device so as to move in a predetermined movement range (11a,11b,11c) along the conveyance direction to exchange the component supply unit. a unit storage container configured to store multiple of the component supply units, a unit exchanging device configured to exchange the component supply unit attached to the multiple component mounting machines with the component supply unit stored in the unit storage container; and a control device configured to control the unit exchanging device, wherein the unit storage container is installed at an upstream position that is further upstream than all the component mounting machines in an arrangement direction of the multiple component mounting machines or at a downstream position that is further downstream than all of the component mounting machines in the arrangement direction of the multiple component mounting machines or at an intermediate position that is between any two of the multiple component mounting machines, and the control device (59,80) is configured to control the unit exchanging device so as to move in a predetermined movement range (11a,11b,11c) along the conveyance direction to exchange the component supply unit.
Medical device comprising a rotationally symmetrical lattice structure with a least two wire elements (11, 12) which are wound in a spiral fashion around a common axis of rotation R and which each form a first and second intersection S', S" with a common plane L arranged perpendicularly to the axis of rotation, wherein a first straight line R' runs through the first intersection S' and a second straight line R" runs through the second intersection S", said straight lines each being arranged in parallel to the axis of rotation R and each encompassing an acute angle (α', α") with one of the two wire elements (11, 12), characterised in that the two angles (α', α") are different.
A golf ball comprising a core and at least one cover covering the core, wherein the core is formed from a core rubber composition containing (a) a base rubber containing a polybutadiene, (b) an α,β-unsaturated carboxylic acid having 3 to 8 carbon atoms and/or a metal salt thereof as a co-crosslinking agent, (c) a crosslinking initiator, and (d) a terpene-based resin.
Method for synchronizing a device with a group of devices functioning in a synchronized manner, each device in said group having in memory a state of said group as known by said device, said group being controlled by at least one controller configured to send commands to said devices, said devices and said at least one controller being interconnected by way of a local area network, said method comprising: - receiving, by way of a device in said group, a request message for requesting a present state of said group sent as a multicast by a device in said group to be synchronized; - randomly selecting a duration and waiting for said duration; - if a group state message transmitted by another device in said group is received, interrupting its waiting; - otherwise, sending a group state message comprising a state of said group known by said device as a multicast. - receiving, by way of a device in said group, a request message for requesting a present state of said group sent as a multicast by a device in said group to be synchronized; - randomly selecting a duration and waiting for said duration; - if a group state message transmitted by another device in said group is received, interrupting its waiting; - otherwise, sending a group state message comprising a state of said group known by said device as a multicast.
A gearshift lever device that allows a gearshift lever to be operated in both an auto mode and a manual mode, comprising: the gearshift lever; a spherical portion that is formed in a lower portion of the gearshift lever and supports the gearshift lever while allowing the gearshift lever to be moved in a front-rear direction in the auto mode or the manual mode and supports the gearshift lever while allowing the gearshift lever to be moved in a right-left direction to switch between the auto mode or the manual mode; a compression rod that is arranged in the gearshift lever movably in a vehicle top-down direction and that, when an operation portion formed on the gearshift lever is operated in the auto mode, is moved downward in the gearshift lever to enable operations of the gearshift lever in the front-rear direction; an elastic body that is arranged at a lower portion in the gearshift lever and pushes the compression rod upward; and a support member that is attached to the gearshift lever and supports a lower portion of the elastic body, wherein the support member includes an insertion portion (43b, 43e) that is inserted from an opening at a lower end of the gearshift lever, characterized in that the support member further includes a lock portion that is locked in a lock hole in the gearshift lever with the insertion portion (43b, 43e) inserted in the gearshift lever
A fastening means for mounting doors or windows, which comprises frames intended to be mounted into an opening in a wall, a floor, a ceiling, in a mounting direction perpendicular to said opening; said fastening means comprises a bracket intended to be mounted on the backside of the frame and at least one screw or bolt, intended to be pushed into the end portion of the opening, said bracket comprises at least one locking slot, said locking slot consisting of a groove, for example a U-formed groove, said screw or bolt comprises at least one locking projection intended to be pushed into said locking slot for fixing of said frame into position, said locking projection comprises the head of the screw or bolt or a casing, for example a housing, which at least in some part encloses the head, characterized in that, said groove extends mainly in a longitudinal direction of the frame, which is a direction perpendicular to the mounting direction when the bracket is mounted to the frame, said groove being formed of a first wall comprising at least a re-springed projection, which is resilient backwards in order to form said groove, and a second wall, said locking projection being suitable to press said first wall of the groove downwards during the mounting, whereby in the mounted position, at least some part of the head of the screw or bolt is locked into said groove between the first wall and said second wall, which stops the moving forwards of the head during mounting. said fastening means comprises a bracket intended to be mounted on the backside of the frame and at least one screw or bolt, intended to be pushed into the end portion of the opening, said bracket comprises at least one locking slot, said locking slot consisting of a groove, for example a U-formed groove, said screw or bolt comprises at least one locking projection intended to be pushed into said locking slot for fixing of said frame into position, said locking projection comprises the head of the screw or bolt or a casing, for example a housing, which at least in some part encloses the head, characterized in that, said groove extends mainly in a longitudinal direction of the frame, which is a direction perpendicular to the mounting direction when the bracket is mounted to the frame, said groove being formed of a first wall comprising at least a re-springed projection, which is resilient backwards in order to form said groove, and a second wall, said locking projection being suitable to press said first wall of the groove downwards during the mounting, whereby in the mounted position, at least some part of the head of the screw or bolt is locked into said groove between the first wall and said second wall, which stops the moving forwards of the head during mounting.
A method for analyzing a periodic movement, the method comprising: - receiving time series data from an inertial sensor used for sensing the periodic movement, - partitioning the received time series data into partitions, each partition corresponding to a period of the movement, - transforming each partition into a data representation of a defined size, and - analyzing the data representation of the periodic movement, wherein analyzing comprises classifying the periodic movement into a movement class based on a statistical model of at least one movement class, characterized in that a probability distribution over the data representation X of a movement period, consisting of k*n elements where k is the number of sensors and n the number of time steps in each period after the transformation, is for each movement class C modeled as P X | C = P x ̅ 0 | C ∏ i = 1 n P x ̅ i | x ̅ i − 1, C where each x i contains the k sensor values corresponding to the i-th time step, and each factor P ( x i | x i -1, C) is represented by a 2*k dimensional multivariate Gaussian distribution, and the probability that a data representation X of a movement period belongs to a movement class C is calculated using P C | X ∝ P X | C P C. - receiving time series data from an inertial sensor used for sensing the periodic movement, - partitioning the received time series data into partitions, each partition corresponding to a period of the movement, - transforming each partition into a data representation of a defined size, and - analyzing the data representation of the periodic movement, wherein analyzing comprises classifying the periodic movement into a movement class based on a statistical model of at least one movement class, characterized in that a probability distribution over the data representation X of a movement period, consisting of k*n elements where k is the number of sensors and n the number of time steps in each period after the transformation, is for each movement class C modeled as P X | C = P x ̅ 0 | C ∏ i = 1 n P x ̅ i | x ̅ i − 1, C where each x i contains the k sensor values corresponding to the i-th time step, and each factor P ( x i | x i -1, C) is represented by a 2*k dimensional multivariate Gaussian distribution, and the probability that a data representation X of a movement period belongs to a movement class C is calculated using P C | X ∝ P X | C P C.
A radiological apparatus comprising a patient table, an X-ray emitter mounted to an arm and adapted to be moved, an X-ray detector associated with said patient table, and an electronic control unit adapted to control at least said emitter and said detector, and comprising further: - sensors adapted to detect the actual movement of said emitter, - at least one actuator adapted to automatically move said detector at least in a horizontal direction (D1, D2); wherein said emitter is adapted to undergo a displacement by an operator, both manually by means of a handle with which it is provided and in a motorized manner; wherein said electronic control unit is connected to said sensors and to said at least one actuator, and is adapted to obtain from said sensors the actual movement of said emitter in both cases of motorized and manual displacement of said emitter, and therefore to control said at least one actuator so that, during normal use of the apparatus, said detector is automatically aligned with said emitter before starting capturing a radiological image or a plurality of radiological images. - sensors adapted to detect the actual movement of said emitter, - at least one actuator adapted to automatically move said detector at least in a horizontal direction (D1, D2); wherein said emitter is adapted to undergo a displacement by an operator, both manually by means of a handle with which it is provided and in a motorized manner; wherein said electronic control unit is connected to said sensors and to said at least one actuator, and is adapted to obtain from said sensors the actual movement of said emitter in both cases of motorized and manual displacement of said emitter, and therefore to control said at least one actuator so that, during normal use of the apparatus, said detector is automatically aligned with said emitter before starting capturing a radiological image or a plurality of radiological images.
A therapeutic agent, comprising: a therapeutic peptide consisting of up to 90 amino acid residues and comprising an amino acid sequence with at least 70% identity to SEQ ID NO:37, wherein the therapeutic peptide inhibits one or more of catalytic activity, signaling, or function of protein tyrosine phosphatase sigma (PTPσ). a therapeutic peptide consisting of up to 90 amino acid residues and comprising an amino acid sequence with at least 70% identity to SEQ ID NO:37, wherein the therapeutic peptide inhibits one or more of catalytic activity, signaling, or function of protein tyrosine phosphatase sigma (PTPσ).
A toner comprising: a strontium titanate powdery material as an external additive, the strontium titanate powdery material including Si-containing particles on a surface of the strontium titanate powdery material, the Si-containing particles having a number average circle equivalent diameter of 5 nm or more but 15 nm or less, as measured by the method according to the description; a resin and a wax, wherein the toner has a peak intensity ratio (W/R) of 0.05 or more but 0.14 or less, where the W is maximum height of a characteristic peak of the wax and the R is maximum height of a characteristic peak of the resin, as measured by an attenuated total reflectance method using a Fourier transform infrared spectroscopy (FT-IR) analysis measuring apparatus according to the description. a strontium titanate powdery material as an external additive, the strontium titanate powdery material including Si-containing particles on a surface of the strontium titanate powdery material, the Si-containing particles having a number average circle equivalent diameter of 5 nm or more but 15 nm or less, as measured by the method according to the description; a resin and a wax, wherein the toner has a peak intensity ratio (W/R) of 0.05 or more but 0.14 or less, where the W is maximum height of a characteristic peak of the wax and the R is maximum height of a characteristic peak of the resin, as measured by an attenuated total reflectance method using a Fourier transform infrared spectroscopy (FT-IR) analysis measuring apparatus according to the description.
A switch on/off control method for being performed in a switch circuit that is provided with: a DMA controller for DMA-transferring all of a plurality of pieces of transfer data written in a predetermined region of a memory in a predetermined period; and a switch that is controlled to be turned on/off based on the transfer data from the DMA controller, characterized in that the transfer data is ON data for use in controlling the switch to be turned on, OFF data for use in controlling the switch to be turned off, or third data for use other than in controlling the switch to be turned on/off, the third data is written in advance in the entire predetermined region, transfer source addresses from which the transfer data is DMA-transferred to the switch at a phase at which the switch is to be controlled to be turned on and a phase at which the switch is to be controlled to be turned off are respectively calculated, the phases being included in the predetermined period, and the ON data and the OFF data are respectively written over the third data that was written at the calculated transfer source addresses.
A compound having the following general Formula Ia or a pharmaceutically acceptable salt thereof: wherein, E and J are N; M, Q and L are C-R; G is C-R or N; K is C; R is selected from the group consisting of hydrogen, substituted or unsubstituted alkyl, haloalkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, arylalkyl, aryl, heteroaryl, hydroxy, alkyloxy, aryloxy, heteroaryloxy, acyloxy, arylacyloxy, heteroarylacyloxy, alkylsulfonyloxy, arylsulfonyloxy, thio, alkylthio, arylthio, amino, alkylamino, dialkylamino, cycloalkylamino, heterocycloalkylamino, arylamino, heteroarylamino, acylamino, arylacylamino, heteroarylacylamino, alkylsulfonylamino, arylsulfonylamino, acyl, arylacyl, heteroarylacyl, alkylsulfinyl, arylsulfinyl, heteroarylsulfinyl, hydroxysulfonyl, alkylsulfonyl, arylsulfonyl, heteroarylsulfonyl, aminosulfonyl, substituted aminosulfonyl, carboxy, alkoxycarbonyl, cycloalkyloxycarbonyl, aryloxycarbonyl, carbamoyl, substituted carbamoyl, halogen, cyano, isocyano and nitro; each of R 7 and R 8 are H and the double bond has a cis configuration Ar 1 is substituted phenyl, unsubstituted phenyl, or pyridyl substituted by an alkoxy group; and Ar 2 is substituted phenyl or unsubstituted phenyl. E and J are N; M, Q and L are C-R; G is C-R or N; K is C; R is selected from the group consisting of hydrogen, substituted or unsubstituted alkyl, haloalkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, arylalkyl, aryl, heteroaryl, hydroxy, alkyloxy, aryloxy, heteroaryloxy, acyloxy, arylacyloxy, heteroarylacyloxy, alkylsulfonyloxy, arylsulfonyloxy, thio, alkylthio, arylthio, amino, alkylamino, dialkylamino, cycloalkylamino, heterocycloalkylamino, arylamino, heteroarylamino, acylamino, arylacylamino, heteroarylacylamino, alkylsulfonylamino, arylsulfonylamino, acyl, arylacyl, heteroarylacyl, alkylsulfinyl, arylsulfinyl, heteroarylsulfinyl, hydroxysulfonyl, alkylsulfonyl, arylsulfonyl, heteroarylsulfonyl, aminosulfonyl, substituted aminosulfonyl, carboxy, alkoxycarbonyl, cycloalkyloxycarbonyl, aryloxycarbonyl, carbamoyl, substituted carbamoyl, halogen, cyano, isocyano and nitro; each of R 7 and R 8 are H and the double bond has a cis configuration Ar 1 is substituted phenyl, unsubstituted phenyl, or pyridyl substituted by an alkoxy group; and Ar 2 is substituted phenyl or unsubstituted phenyl.
Optical interference modulator, comprising a main input for light to be modulated, a main output for modulated light, an optical splitter connected to the main input, respective first and second MMI (MultiMode Interference) couplers, (233, 243) each with a respective first primary-end access port connected to the splitter; a respective second primary-end access port connected to the main output; a respective first secondary-end access port connected to a respective primary waveguide; and a respective second secondary-end access port connected to a respective secondary waveguide, wherein the modulator further comprises a light reflector arranged to reflect light incident from said primary and secondary waveguides back into the same respective waveguide, so that light travelling through the waveguide in question from said respective first or second MMI coupler secondary-end access port will, after reflection, travel back to the same first or second MMI coupler secondary-end access port, wherein, for both the first and second MMI couplers, at least one of the said respective primary and secondary waveguides comprises a respective light phase modulating device arranged to modulate the phase of light travelling along the waveguide in question in both directions; and wherein both the first and second MMI couplers are arranged so that a different respective phase shift is imparted to light travelling between a primary-end access port and a secondary-end access port in a cross state as compared to in a bar state. a main input for light to be modulated, a main output for modulated light, an optical splitter connected to the main input, respective first and second MMI (MultiMode Interference) couplers, (233, 243) each with a respective first primary-end access port connected to the splitter; a respective second primary-end access port connected to the main output; a respective first secondary-end access port connected to a respective primary waveguide; and a respective second secondary-end access port connected to a respective secondary waveguide, a respective first primary-end access port connected to the splitter; a respective second primary-end access port connected to the main output; a respective first secondary-end access port connected to a respective primary waveguide; and a respective second secondary-end access port connected to a respective secondary waveguide,
A system for use in a well, comprising: running string comprising a running tool; a liner hanger assembly coupled with the running tool for conveyance to a desired location in a borehole, the liner hanger assembly comprising: a packer; a liner hanger actuatable between a radially contracted position and a radially expanded set position by applying a sufficient pressure differential between an inner pressure region and an intermediate pressure region; and a ball seat positioned to receive a ball blocking communication between the inner pressure region and the intermediate pressure region to enable application of the sufficient pressure differential; characterised in that the system comprises an anti-preset module comprising a locking mechanism mounted on the liner hanger assembly and a sleeve mounted in the running tool, wherein the locking mechanism comprises a plurality of dogs held in in a radially outward locked position by the sleeve to lock the liner hanger against actuation, the sleeve being shiftable to release the locking dogs in response to buildup of the sufficient pressure differential. running string comprising a running tool; a liner hanger assembly coupled with the running tool for conveyance to a desired location in a borehole, the liner hanger assembly comprising: a packer; a liner hanger actuatable between a radially contracted position and a radially expanded set position by applying a sufficient pressure differential between an inner pressure region and an intermediate pressure region; and a ball seat positioned to receive a ball blocking communication between the inner pressure region and the intermediate pressure region to enable application of the sufficient pressure differential; characterised in that the system comprises an anti-preset module comprising a locking mechanism mounted on the liner hanger assembly and a sleeve mounted in the running tool, wherein the locking mechanism comprises a plurality of dogs held in in a radially outward locked position by the sleeve to lock the liner hanger against actuation, the sleeve being shiftable to release the locking dogs in response to buildup of the sufficient pressure differential. a packer; a liner hanger actuatable between a radially contracted position and a radially expanded set position by applying a sufficient pressure differential between an inner pressure region and an intermediate pressure region; and a ball seat positioned to receive a ball blocking communication between the inner pressure region and the intermediate pressure region to enable application of the sufficient pressure differential; characterised in that the system comprises an anti-preset module comprising a locking mechanism mounted on the liner hanger assembly and a sleeve mounted in the running tool, wherein the locking mechanism comprises a plurality of dogs held in in a radially outward locked position by the sleeve to lock the liner hanger against actuation, the sleeve being shiftable to release the locking dogs in response to buildup of the sufficient pressure differential.