mhurhangee/ep-ind-claims huggingface dataset:
A control device for synchronizing and controlling a master device and a slave device at a fixed period when a number of axes of the master device is less than a number of axes of the slave device, comprising: a computing unit configured to obtain a command value (CVn) for each axis of the slave device through computation at the fixed period based on a command value (CVm) for each axis or a measured current value (CVm') of each axis of the master device, wherein the computing unit comprises: a synchronization computing unit configured to perform synchronization computation for maintaining a position of the master device and a position of the slave device in a predetermined corresponding relation for the command value (CVm) for each axis or the measured current value (CVm') of each axis of the master device at the fixed period; the control device being characterized in further comprising: a coordinate transformation unit configured to perform coordinate transformation from a coordinate system of the master device into a coordinate system of the slave device for synchronization computation result values obtained through the synchronization computation. a computing unit configured to obtain a command value (CVn) for each axis of the slave device through computation at the fixed period based on a command value (CVm) for each axis or a measured current value (CVm') of each axis of the master device, wherein the computing unit comprises: a synchronization computing unit configured to perform synchronization computation for maintaining a position of the master device and a position of the slave device in a predetermined corresponding relation for the command value (CVm) for each axis or the measured current value (CVm') of each axis of the master device at the fixed period; the control device being characterized in further comprising: a coordinate transformation unit configured to perform coordinate transformation from a coordinate system of the master device into a coordinate system of the slave device for synchronization computation result values obtained through the synchronization computation. a synchronization computing unit configured to perform synchronization computation for maintaining a position of the master device and a position of the slave device in a predetermined corresponding relation for the command value (CVm) for each axis or the measured current value (CVm') of each axis of the master device at the fixed period; the control device being characterized in further comprising: a coordinate transformation unit configured to perform coordinate transformation from a coordinate system of the master device into a coordinate system of the slave device for synchronization computation result values obtained through the synchronization computation.
Heat shield element for attachment to a support structure, in particular for use in a heat shield, with - a hot side to be turned away from a support structure, which is suitable for exposure to a hot medium, - a cold side to be turned towards the support structure and - a number of peripheral surfaces connecting the hot side to the cold side, which are provided to abut peripheral surfaces of heat shield elements (1, 2) to be attached in an adjacent fashion in the peripheral direction of the support structure, leaving the peripheral gap, and have grooves for engagement with engagement sections of element retainers, which retain the heat shield element (1, 2) on the support structure, characterised in that at least one stud (24, 28) is arranged in each groove, forming a stop for the engagement sections of the element retainers. - a hot side to be turned away from a support structure, which is suitable for exposure to a hot medium, - a cold side to be turned towards the support structure and - a number of peripheral surfaces connecting the hot side to the cold side, which are provided to abut peripheral surfaces of heat shield elements (1, 2) to be attached in an adjacent fashion in the peripheral direction of the support structure, leaving the peripheral gap, and have grooves for engagement with engagement sections of element retainers, which retain the heat shield element (1, 2) on the support structure, characterised in that at least one stud (24, 28) is arranged in each groove, forming a stop for the engagement sections of the element retainers.
A vehicle lighting device comprising: a flange portion; a storage portion that protrudes from one surface of the flange portion; and a light emitting module that is provided in an end portion of the storage portion on a side opposite to the flange portion side, the light emitting module including a substrate, a first light emitting portion that is provided on the substrate, has a light emitting element, and emits white light, a second light emitting portion that is provided on the substrate, has a light emitting element, and emits red or-amber light, a control portion that causes one of the first light emitting portion and the second light emitting portion to emit light, and a portion that has a light-transmitting property and covers the first light emitting portion and the second light emitting portion, characterized in that the portion is a diffusion portion and the diffusion portion includes a diffusion material that diffuses the light emitted from the first light emitting portion and the second light emitting portion, the first light emitting portion and the second light emitting portion are provided in a position which is shifted from the central axis of the vehicle lighting device, and the first light emitting portion and the second light emitting portion are provided in a region of which a diameter is within 20 mm on the substrate. a flange portion; a storage portion that protrudes from one surface of the flange portion; and a light emitting module that is provided in an end portion of the storage portion on a side opposite to the flange portion side, the light emitting module including a substrate, a first light emitting portion that is provided on the substrate, has a light emitting element, and emits white light, a second light emitting portion that is provided on the substrate, has a light emitting element, and emits red or-amber light, a control portion that causes one of the first light emitting portion and the second light emitting portion to emit light, and a portion that has a light-transmitting property and covers the first light emitting portion and the second light emitting portion, characterized in that the portion is a diffusion portion and the diffusion portion includes a diffusion material that diffuses the light emitted from the first light emitting portion and the second light emitting portion, the first light emitting portion and the second light emitting portion are provided in a position which is shifted from the central axis of the vehicle lighting device, and the first light emitting portion and the second light emitting portion are provided in a region of which a diameter is within 20 mm on the substrate.
An electronic device comprising: an outer housing including a recess to receive a peripheral module (120, 120B); and a mounting assembly to move the peripheral module into and out of the recess of the outer housing, wherein the mounting assembly is moveably coupled to the outer housing; wherein the mounting assembly includes a latch mechanism to removably attach the mounting assembly to the peripheral module; wherein the mounting assembly includes a first electrical connector to removably connect to a second electrical connector of the peripheral module; characterized in that: the latch mechanism includes an arm and a lip disposed along the arm; the arm and a lip are to move into and out of engagement with a shoulder of the peripheral module; and the latch mechanism is biased into the outer housing an outer housing including a recess to receive a peripheral module (120, 120B); and a mounting assembly to move the peripheral module into and out of the recess of the outer housing, wherein the mounting assembly is moveably coupled to the outer housing; wherein the mounting assembly includes a latch mechanism to removably attach the mounting assembly to the peripheral module; wherein the mounting assembly includes a first electrical connector to removably connect to a second electrical connector of the peripheral module; characterized in that: the latch mechanism includes an arm and a lip disposed along the arm; the arm and a lip are to move into and out of engagement with a shoulder of the peripheral module; and the latch mechanism is biased into the outer housing
A crystal of iosimenol characterized by (i) a powder x-ray diffraction pattern having four or more 2θ ± 0.2 peaks and selected from 8.1°, 9.6°, 9.9°, 10.0°, 10.7°, 15.4°, 16.9°, 18.0°, 18.6°, 18.9°, 20.1°, 20.4°, 21.9°, 22.2°, 22.5°, 24.8°, 26.1°, 26.8°, 27.5°, 28.9°, 29.4°, 29.7°, 30.5°, 34.1° and 34.6°, wherein measurement of said crystal is at a temperature of 293 K; or (ii) unit cell parameters at T = 293K equal to the following: a = 21.8919 A, b = 9.8210 Å, c = 20.0233 A, α = 90°, β = 94.955 °, γ = 90°, volume 4289 Å 3 and a monoclinic P21/a space group. (i) a powder x-ray diffraction pattern having four or more 2θ ± 0.2 peaks and selected from 8.1°, 9.6°, 9.9°, 10.0°, 10.7°, 15.4°, 16.9°, 18.0°, 18.6°, 18.9°, 20.1°, 20.4°, 21.9°, 22.2°, 22.5°, 24.8°, 26.1°, 26.8°, 27.5°, 28.9°, 29.4°, 29.7°, 30.5°, 34.1° and 34.6°, wherein measurement of said crystal is at a temperature of 293 K; or (ii) unit cell parameters at T = 293K equal to the following: a = 21.8919 A, b = 9.8210 Å, c = 20.0233 A, α = 90°, β = 94.955 °, γ = 90°, volume 4289 Å 3 and a monoclinic P21/a space group.
A method for performing a soft handover in a broadband wireless access communication system which includes a mobile station, an anchor base station providing communication services to the mobile station, and an active non-anchor base station different from the anchor base station, the soft handover of the mobile station scheduled to be performed toward the active non-anchor base station wherein the mobile station has channels set up with both the anchor base station and the active non-anchor base station, the method comprising the steps of: receiving (1119,1121), by the mobile station, first and second information from the anchor base station or receiving (1215,1217), by the mobile station, first and second information from the active non-anchor base station when it is determined that the mobile station is to perform the soft handover, the first information including channel assignment information of the active non-anchor base station and a connection identifier of the mobile station used in the anchor base station, the second information including channel assignment information of the anchor base station and the connection identifier of the mobile station used in the anchor base station, receiving, by the mobile station from the active non-anchor base station, third information representing a relationship between the connection identifier in the first information and a connection identifier of the mobile station allocated by the active non-anchor base station; and receiving/transmitting (1123,1221) signals from/to the anchor base station and the active non-anchor base station corresponding to the obtained channel assignment information and the third information. receiving (1119,1121), by the mobile station, first and second information from the anchor base station or receiving (1215,1217), by the mobile station, first and second information from the active non-anchor base station when it is determined that the mobile station is to perform the soft handover, the first information including channel assignment information of the active non-anchor base station and a connection identifier of the mobile station used in the anchor base station, the second information including channel assignment information of the anchor base station and the connection identifier of the mobile station used in the anchor base station, receiving, by the mobile station from the active non-anchor base station, third information representing a relationship between the connection identifier in the first information and a connection identifier of the mobile station allocated by the active non-anchor base station; and receiving/transmitting (1123,1221) signals from/to the anchor base station and the active non-anchor base station corresponding to the obtained channel assignment information and the third information.
Method for controlling the direction of a wellbore trajectory during directional sliding drilling by means of a drill string having a drill bit rotatable, by means of a mud motor, around a drill bit rotation axis at its lower end, the direction of the drill bit rotation axis defining a tool face, and the method comprising the following steps: a1) estimating a pressure drop across the mud motor by measuring a drilling fluid pressure; b1) utilizing the estimated pressure drop from step a1) to calculate the torque of the mud motor; and c1) calculating a reactive twist angle of the drill string by multiplying the calculated torque from step b1) by the torsional drill string compliance, wherein step a1) comprises the step of including any transient drilling fluid pressure in the estimate, characterized in that the method further comprises the step of d1) rotating the drill string, by means of a drill string rotation means, an angle substantially equal to but in the opposite direction of the calculated reactive twist angle and forward feeding the calculated reactive twist angle to a control loop of the drill string rotation means for instantly regulating the tool face. a1) estimating a pressure drop across the mud motor by measuring a drilling fluid pressure; b1) utilizing the estimated pressure drop from step a1) to calculate the torque of the mud motor; and c1) calculating a reactive twist angle of the drill string by multiplying the calculated torque from step b1) by the torsional drill string compliance, wherein step a1) comprises the step of including any transient drilling fluid pressure in the estimate, characterized in that the method further comprises the step of d1) rotating the drill string, by means of a drill string rotation means, an angle substantially equal to but in the opposite direction of the calculated reactive twist angle and forward feeding the calculated reactive twist angle to a control loop of the drill string rotation means for instantly regulating the tool face.
An illumination system comprising a plurality of white light sources that satisfies a relationship of − 0.2 ≤ P λ × V λ / P λ max 1 × V λ max 1 − B λ × V λ / B λ max 2 × V λ max 2 ≤ + 0.2 where P(λ) is an emission spectrum of a white light source having a specific color temperature on a black-body locus, B(λ) is an emission spectrum of black body radiation having a corresponding color temperature, V(λ) is a spectrum of spectral luminous efficiency, λmax1 is a wavelength at which P(λ) × V(λ) becomes maximum, and λmax2 is a wavelength at which B(λ) × V(λ) becomes maximum, characterized in that the respective white light sources are the white light sources that have different color temperatures, and light from the respective white light sources is irradiated from different directions to a target.
Process for making a particulate material of general formula, Ni a Co b Mn c M d x y wherein M is selected from Al and Ti, x is in the range of from 0.01 to 0.9, y is in the range of from 1.1 to 1.99, a is in the range of from 0.3 to 0.85, b is in the range of from 0.05 to 0.4, c is in the range of from 0.1 to 0.5, d is in the range of from 0.001 to 0.03, with a + b+ c+ d = 1 said process comprising the following steps: (a) providing an aqueous slurry of particles of aluminium hydroxide or titanium dioxide, (b) adding an aqueous solution of water-soluble salts of nickel, cobalt and manganese and a solution of alkali metal hydroxide to the slurry according to step (a), thereby co-precipitating a layer of a mixed hydroxide of nickel and cobalt and manganese hydroxide on the particles according to step (a), (c) removing particles of (Ni a Co b Mn c Al d) 2+d or (Ni a CO b Mn c Ti d) 2+2d so obtained and drying them in the presence of oxygen. M is selected from Al and Ti, x is in the range of from 0.01 to 0.9, y is in the range of from 1.1 to 1.99, a is in the range of from 0.3 to 0.85, b is in the range of from 0.05 to 0.4, c is in the range of from 0.1 to 0.5, d is in the range of from 0.001 to 0.03, with a + b+ c+ d = 1 said process comprising the following steps: (a) providing an aqueous slurry of particles of aluminium hydroxide or titanium dioxide, (b) adding an aqueous solution of water-soluble salts of nickel, cobalt and manganese and a solution of alkali metal hydroxide to the slurry according to step (a), thereby co-precipitating a layer of a mixed hydroxide of nickel and cobalt and manganese hydroxide on the particles according to step (a), (c) removing particles of (Ni a Co b Mn c Al d) 2+d or (Ni a CO b Mn c Ti d) 2+2d so obtained and drying them in the presence of oxygen. (a) providing an aqueous slurry of particles of aluminium hydroxide or titanium dioxide, (b) adding an aqueous solution of water-soluble salts of nickel, cobalt and manganese and a solution of alkali metal hydroxide to the slurry according to step (a), thereby co-precipitating a layer of a mixed hydroxide of nickel and cobalt and manganese hydroxide on the particles according to step (a), (c) removing particles of (Ni a Co b Mn c Al d) 2+d or (Ni a CO b Mn c Ti d) 2+2d so obtained and drying them in the presence of oxygen.
An apparatus comprising: a housing having a body defining a volume to encapsulate a controller that is adapted to control operation of a field device, the housing being capable of withstanding a threshold internal pressure greater than an external pressure, the body having a transparent portion having a first surface, a second surface and a third surface extending between the first and the second surfaces (150a, 150b); a touch sensor disposed adjacent to the second surface of the transparent portion, the touch sensor being adapted to sense an input received within a minimum distance from the first surface of the transparent portion; and a display disposed adjacent to and communicatively coupled to the touch sensor and the controller, the display being adapted to display at least one adjustable variable of the controller, wherein at least a portion of the third surface of the transparent portion defines a first contact dimension ("A") representing a length of sealing resin used to seal the housing along a width of the transparent portion and the body, and at least a portion of the first surface of the transparent portion defines a second contact dimension ("B") representing a length of contact between the first surface of the transparent portion and a facing surface that is downstream from a packing member, wherein a total length of the first contact dimension and the second dimension define a treacherous path, wherein the treacherous path is greater than approximately 10mm, thereby causing the apparatus to avoid gaseous creepage through the housing. a housing having a body defining a volume to encapsulate a controller that is adapted to control operation of a field device, the housing being capable of withstanding a threshold internal pressure greater than an external pressure, the body having a transparent portion having a first surface, a second surface and a third surface extending between the first and the second surfaces (150a, 150b); a touch sensor disposed adjacent to the second surface of the transparent portion, the touch sensor being adapted to sense an input received within a minimum distance from the first surface of the transparent portion; and a display disposed adjacent to and communicatively coupled to the touch sensor and the controller, the display being adapted to display at least one adjustable variable of the controller, wherein at least a portion of the third surface of the transparent portion defines a first contact dimension ("A") representing a length of sealing resin used to seal the housing along a width of the transparent portion and the body, and at least a portion of the first surface of the transparent portion defines a second contact dimension ("B") representing a length of contact between the first surface of the transparent portion and a facing surface that is downstream from a packing member, wherein a total length of the first contact dimension and the second dimension define a treacherous path, wherein the treacherous path is greater than approximately 10mm, thereby causing the apparatus to avoid gaseous creepage through the housing.
A composition comprising a therapeutically effective amount of platanoside and isomers thereof having the p-coumaric acid and kaempferol moieties connected to the sugar in different positions than in platanoside itself or pharmaceutically acceptable salts thereof for use in treating a pancreatic, liver or brain cancer in a subject.
A computer-implemented method comprising: generating a data dictionary that contains metadata describing: native data (160, 360) that is durably stored in a database management system, DBMS (110, 310, 410), and external data that is loaded from an external data source (180, 480) into an in-memory column vector (130, 333, 430) that resides in a random access memory of the DBMS (110, 310, 410); receiving, from a client through a connection to the DBMS (110, 310, 410), a query; executing the query based on the data dictionary, wherein executing said query includes executing a data join (150, 350) of the in-memory column vector (130, 333, 430) with the native data (160, 360); wherein the native data (160, 360) and the in-memory column vector (130, 333, 430) are dictionary encoded based on an encoding dictionary that describes a same encoding of the native data (160, 360) and the in-memory column vector (130, 333, 430); wherein the data join (150, 350) of the in-memory column vector (130, 333, 430) with the native data (160, 360) is performed based on dictionary encoding keys as they occur in the dictionary encoded native data (160, 360) and in the dictionary encoded in-memory column vector (130, 333, 430); returning, to the client through said connection, results of the query. generating a data dictionary that contains metadata describing: native data (160, 360) that is durably stored in a database management system, DBMS (110, 310, 410), and external data that is loaded from an external data source (180, 480) into an in-memory column vector (130, 333, 430) that resides in a random access memory of the DBMS (110, 310, 410); native data (160, 360) that is durably stored in a database management system, DBMS (110, 310, 410), and external data that is loaded from an external data source (180, 480) into an in-memory column vector (130, 333, 430) that resides in a random access memory of the DBMS (110, 310, 410); receiving, from a client through a connection to the DBMS (110, 310, 410), a query; executing the query based on the data dictionary, wherein executing said query includes executing a data join (150, 350) of the in-memory column vector (130, 333, 430) with the native data (160, 360); wherein the native data (160, 360) and the in-memory column vector (130, 333, 430) are dictionary encoded based on an encoding dictionary that describes a same encoding of the native data (160, 360) and the in-memory column vector (130, 333, 430); wherein the data join (150, 350) of the in-memory column vector (130, 333, 430) with the native data (160, 360) is performed based on dictionary encoding keys as they occur in the dictionary encoded native data (160, 360) and in the dictionary encoded in-memory column vector (130, 333, 430); returning, to the client through said connection, results of the query.