mhurhangee/ep-ind-claims huggingface dataset:
A robot for performing operations on ship's hulls, the robot comprising: wheels and a suspension arrangement (5, 10, 11, 12, 24) for supporting the wheels on a body (2, 3) of the robot and for allowing the robot to travel over uneven surfaces; wherein the robot comprises a first pair of wheels and a second pair of wheels, with the pairs of wheels spaced apart from one another along a length of the robot; wherein the suspension arrangement comprises a suspension pivot mechanism (5, 24) allowing a line extending between the centres of the first pair of wheels to rotate relative to a line extending between the centres of the second pair of wheels; wherein the suspension arrangement also comprises a camber pivot mechanism (10, 11, 12) for each wheel, with the camber pivot mechanism allowing the axis of rotation of the wheel to rotate relative to the axes of rotation of the other wheels in order that the wheel can align its axis of rotation with the surface of the hull; and wherein magnetic forces for attaching the robot to the hull act to rotate the suspension pivot mechanism and camber pivot mechanisms; characterised in that the first pair of wheels and the second pair of wheels are magnetic wheels enabling the robot to adhere to ferrous hulls such that the magnetic forces for rotating the suspension pivot mechanism and camber pivot mechanisms are magnetic forces applied via the wheels, and in that on the surface of the wheels there is a resilient layer with a thickness of less than 2 % of the wheel diameter. wheels and a suspension arrangement (5, 10, 11, 12, 24) for supporting the wheels on a body (2, 3) of the robot and for allowing the robot to travel over uneven surfaces; wherein the robot comprises a first pair of wheels and a second pair of wheels, with the pairs of wheels spaced apart from one another along a length of the robot; wherein the suspension arrangement comprises a suspension pivot mechanism (5, 24) allowing a line extending between the centres of the first pair of wheels to rotate relative to a line extending between the centres of the second pair of wheels; wherein the suspension arrangement also comprises a camber pivot mechanism (10, 11, 12) for each wheel, with the camber pivot mechanism allowing the axis of rotation of the wheel to rotate relative to the axes of rotation of the other wheels in order that the wheel can align its axis of rotation with the surface of the hull; and wherein magnetic forces for attaching the robot to the hull act to rotate the suspension pivot mechanism and camber pivot mechanisms; characterised in that the first pair of wheels and the second pair of wheels are magnetic wheels enabling the robot to adhere to ferrous hulls such that the magnetic forces for rotating the suspension pivot mechanism and camber pivot mechanisms are magnetic forces applied via the wheels, and in that on the surface of the wheels there is a resilient layer with a thickness of less than 2 % of the wheel diameter.
A method, comprising: a) planning a head scan of a subject via a console of an imaging system, wherein the head scan scans both jaws of the subject, including metallic dental fillings of teeth of the subject; b) scanning the subject, including the metallic dental fillings of the teeth of the subject, via the imaging system, wherein the subject has a dental metal artifact reduction device installed in the mouth during the scan for separating the jaws of the subject; and c) generating projection data indicative of the scanned region of the head of the subject, including the metallic dental fillings of the teeth of the subject; characterized in that the dental metal artifact reduction device is wedge shaped and has a geometry that inhibits movement of the tongue of the subject when the dental metal artifact reduction device is installed in the mouth of the subject; and and in that: i) the dental metal artifact reduction device includes a wireless transmitter and the console includes a corresponding wireless receiver; and wherein step a) further comprises automatically populating and/or recommending one or more parameters of the head scan plan based on information about the dental metal artifact reduction device transmitted by the dental metal artifact reduction device to the console; or ii) an operator of the imaging system, when planning the head scan for the subject, enters, via the console, information about the dental metal artifact reduction device; and wherein step a) further comprises automatically populating and/or recommending one or more parameters of the head scan plan based on the information about the dental metal artifact reduction device. a) planning a head scan of a subject via a console of an imaging system, wherein the head scan scans both jaws of the subject, including metallic dental fillings of teeth of the subject; b) scanning the subject, including the metallic dental fillings of the teeth of the subject, via the imaging system, wherein the subject has a dental metal artifact reduction device installed in the mouth during the scan for separating the jaws of the subject; and c) generating projection data indicative of the scanned region of the head of the subject, including the metallic dental fillings of the teeth of the subject; i) the dental metal artifact reduction device includes a wireless transmitter and the console includes a corresponding wireless receiver; and wherein step a) further comprises automatically populating and/or recommending one or more parameters of the head scan plan based on information about the dental metal artifact reduction device transmitted by the dental metal artifact reduction device to the console; or ii) an operator of the imaging system, when planning the head scan for the subject, enters, via the console, information about the dental metal artifact reduction device; and wherein step a) further comprises automatically populating and/or recommending one or more parameters of the head scan plan based on the information about the dental metal artifact reduction device.
A method of producing masks for the manufacture of semiconductor structures, the method being carried out by means of a data processing device and comprising the following steps: - generating layout data comprising information for specifying a mask layout for a mask to be produced, the mask layout comprising geometrical structural elements, - specifying geometrical design-related requirements for individual structural elements among the structural elements and for the arrangement of said individual structural elements in the mask layout, - checking the layout data to the effect as to whether the geometrical design-related requirements are met for the individual structural elements and for their arrangement in the mask layout, - in case of violating design-related requirements, localizing the.corresponding error locations (10, 20) in the mask layout on the basis of the layout data, - generating further layout data comprising information for specifying correction figures (11, 22) for correcting the respective error locations (10, 20), - combining the layout data with the further layout data, so that the layout data are modified. - generating layout data comprising information for specifying a mask layout for a mask to be produced, the mask layout comprising geometrical structural elements, - specifying geometrical design-related requirements for individual structural elements among the structural elements and for the arrangement of said individual structural elements in the mask layout, - checking the layout data to the effect as to whether the geometrical design-related requirements are met for the individual structural elements and for their arrangement in the mask layout, - in case of violating design-related requirements, localizing the.corresponding error locations (10, 20) in the mask layout on the basis of the layout data, - generating further layout data comprising information for specifying correction figures (11, 22) for correcting the respective error locations (10, 20), - combining the layout data with the further layout data, so that the layout data are modified.
Method for manufacturing a chromium metal - chromium oxide coated blackplate by electrolytically depositing the chromium metal - chromium oxide coating on blackplate in a continuous high speed plating line operating at a line speed of at least 50 m/min from an electrolyte solution comprising a trivalent chromium compound, wherein the electrolyte solution is free of chloride ions and of a boric acid buffering agent, the electrically conductive substrate acts as a cathode and an anode comprising a catalytic coating of iridium oxide or a mixed metal oxide for reducing or eliminating the oxidation of Cr 3+ -ions to Cr 6+ -ions, wherein the electrolyte solution contains at most 250 mM Cr 3+ -ions, a complexing agent at a complexing agent Cr 3 + molar ratio of at least 1:1 and at most 2.5:1, wherein the complexing agent is formate (HCOO-), 210 to 2800 mM of sodium sulphate (Na 2 SO 4), a pH of between 1.5 and 3.0 measured at 25 °C, and wherein the plating temperature is between 30 and 70 °C.
A process for preparing primary amines, which comprises hydrogenating at least one nitrile in an apparatus in the presence of an unsupported cobalt catalyst to obtain at least one primary amine, with recurrent or continuous addition of at least one compound to the apparatus, said compound comprising at least one component selected from alkali metal, wherein the hydrogenation is conducted in the absence of ammonia.
A method of preparing D-arginine, comprising the steps of: depositing a D-3-bromocamphor-8-sulfonic acid salt of D-arginine by optically resolving DL-arginine using, as an optical resolving agent, D-3-bromocamphor-8-sulfonic acid or a salt of D-3-bromocamphor-8-sulfonic acid; and hydrolyzing the deposited D-3-bromocamphor-8-sulfonic acid salt of D-arginine. depositing a D-3-bromocamphor-8-sulfonic acid salt of D-arginine by optically resolving DL-arginine using, as an optical resolving agent, D-3-bromocamphor-8-sulfonic acid or a salt of D-3-bromocamphor-8-sulfonic acid; and hydrolyzing the deposited D-3-bromocamphor-8-sulfonic acid salt of D-arginine.
A biocompatible tissue implant for repairing a tissue injury or defect, comprising: a cartilage tissue cylinder having a geometry suitable for implantation at the tissue site, the cartilage tissue cylinder including an effective amount of viable cells, and further being dimensioned so that the cells can migrate out of the cartilage tissue cylinder to proliferate and integrate with tissue at the injury or defect, and further including at least one minced cartilage tissue fragment containing a plurality of viable cells. a cartilage tissue cylinder having a geometry suitable for implantation at the tissue site, the cartilage tissue cylinder including an effective amount of viable cells, and further being dimensioned so that the cells can migrate out of the cartilage tissue cylinder to proliferate and integrate with tissue at the injury or defect, and further including at least one minced cartilage tissue fragment containing a plurality of viable cells.
Vaporiser head for an inhaler, in particular for an electronic cigarette product, comprising - a heating element-wick structure assembly having an electrically operable heating element, which has at least one liquid-conducting through-channel and a porous and/or capillary wick structure arranged at an inlet side of the heating element, and - a support plate for retaining the heating element-wick structure assembly, characterised in that - the vaporiser head has a liquid-conducting cannula having a piercing region preferably protruding, wherein - the piercing region is designed for piercing an external component, in particular a liquid reservoir. - a heating element-wick structure assembly having an electrically operable heating element, which has at least one liquid-conducting through-channel and a porous and/or capillary wick structure arranged at an inlet side of the heating element, and - a support plate for retaining the heating element-wick structure assembly, characterised in that - the vaporiser head has a liquid-conducting cannula having a piercing region preferably protruding, wherein - the piercing region is designed for piercing an external component, in particular a liquid reservoir.
A rotatable safety seat, the rotatable safety seat characterized by: a seat body; a seat base; and a rotation component being engaged with the seat body and slidably connected on the seat base; wherein the seat body being shifting and rotating on the seat base via a sliding movement of the rotation component, wherein the rotation component comprises a first movable end and a second movable end linked with and spaced from each other, the seat body is slidably connected with the seat base via engaging with the first movable end and the second movable end, wherein the rotation component comprises a first sliding portion and a second sliding portion, the first sliding portion is slidably disposed on the seat base to be the first movable end, the second sliding portion is slidably disposed on the seat base to be the second movable end, and the first sliding portion is linked with the second sliding portion, wherein the rotation component further comprises a first slide rail and a second slide rail, the first sliding portion is engaged with the first slide rail in a slidable manner, the second sliding portion is engaged with the second slide rail in the slidable manner, the first slide rail and the second slide rail are crossed and disposed on the seat base, and the seat body is connected with the first sliding portion and the second sliding portion, and wherein an installation slot is formed on the top surface of the seat base, and the first slide rail and the second slide rail are disposed inside the installation slot. a seat body; a seat base; and a rotation component being engaged with the seat body and slidably connected on the seat base; wherein the seat body being shifting and rotating on the seat base via a sliding movement of the rotation component, wherein the rotation component comprises a first movable end and a second movable end linked with and spaced from each other, the seat body is slidably connected with the seat base via engaging with the first movable end and the second movable end, wherein the rotation component comprises a first sliding portion and a second sliding portion, the first sliding portion is slidably disposed on the seat base to be the first movable end, the second sliding portion is slidably disposed on the seat base to be the second movable end, and the first sliding portion is linked with the second sliding portion, wherein the rotation component further comprises a first slide rail and a second slide rail, the first sliding portion is engaged with the first slide rail in a slidable manner, the second sliding portion is engaged with the second slide rail in the slidable manner, the first slide rail and the second slide rail are crossed and disposed on the seat base, and the seat body is connected with the first sliding portion and the second sliding portion, and wherein an installation slot is formed on the top surface of the seat base, and the first slide rail and the second slide rail are disposed inside the installation slot.
A method of receiving commands at a peripheral device, the method comprising: detecting a file access command having an embedded control command at a peripheral device wherein the file access command targets a predetermined virtual file that implements a modem interface; extracting the control command from the file access command; and processing the control command to control operation of the modem. detecting a file access command having an embedded control command at a peripheral device wherein the file access command targets a predetermined virtual file that implements a modem interface; extracting the control command from the file access command; and processing the control command to control operation of the modem.
A pellet hopper assembly, comprising: a hopper bottom, comprising: a first panel connected to a second panel at a first interface and the second panel connected to a third panel at a second interface, wherein a first inner edge of the first panel, a second inner edge of the second panel, and a third inner edge of the third panel together define a pellet evacuation opening, and wherein: the first panel forms a first nonzero angle with respect to a horizontal plane such that the first panel tilts downward toward the pellet evacuation opening; the second panel forms a second nonzero angle with respect to the horizontal plane such that the second panel tilts downward toward the pellet evacuation opening; and the third panel forms a third nonzero angle with respect to the horizontal plane such that the third panel tilts downward toward the pellet evacuation opening; and a wall panel extending between and connected to the first and third panels at third and fourth interfaces, respectively, the wall panel comprising: a main surface extending vertically upward from the third and fourth interfaces; and a bottom angled surface connected to the main surface, the bottom angled surface including a fourth inner edge that at least partially defines the pellet evacuation opening, the bottom angled surface forming a fourth nonzero angle with respect to the horizontal plane such that the bottom angled surface tilts downward toward the pellet evacuation opening. the first panel forms a first nonzero angle with respect to a horizontal plane such that the first panel tilts downward toward the pellet evacuation opening; the second panel forms a second nonzero angle with respect to the horizontal plane such that the second panel tilts downward toward the pellet evacuation opening; and the third panel forms a third nonzero angle with respect to the horizontal plane such that the third panel tilts downward toward the pellet evacuation opening; and a wall panel extending between and connected to the first and third panels at third and fourth interfaces, respectively, the wall panel comprising: a main surface extending vertically upward from the third and fourth interfaces; and a bottom angled surface connected to the main surface, the bottom angled surface including a fourth inner edge that at least partially defines the pellet evacuation opening, the bottom angled surface forming a fourth nonzero angle with respect to the horizontal plane such that the bottom angled surface tilts downward toward the pellet evacuation opening. a main surface extending vertically upward from the third and fourth interfaces; and a bottom angled surface connected to the main surface, the bottom angled surface including a fourth inner edge that at least partially defines the pellet evacuation opening, the bottom angled surface forming a fourth nonzero angle with respect to the horizontal plane such that the bottom angled surface tilts downward toward the pellet evacuation opening.
A core for casting a part for a gas turbine engine, comprising: a core body; and a first cooling hole forming portion and a second cooling hole portion that extends from said core body, wherein said core body includes a varying thickness across a length of said core body, said core body includes an undulating shaped section comprising a plurality of peak portions and a plurality of trough portions, said first cooling hole forming portion includes at least a metering section and a diffusing section, said metering section is disposed between said core body and said diffusing section, said first cooling hole forming portion includes a first cross-sectional area and said second cooling hole forming portion includes a second cross sectional area that is less than said first cross-sectional area, and said first cooling hole forming portion extends a first distance from said core body and said second cooling hole forming portion extends a second distance from said core body that is less than said first distance. a core body; and a first cooling hole forming portion and a second cooling hole portion that extends from said core body, wherein said core body includes a varying thickness across a length of said core body, said core body includes an undulating shaped section comprising a plurality of peak portions and a plurality of trough portions, said first cooling hole forming portion includes at least a metering section and a diffusing section, said metering section is disposed between said core body and said diffusing section, said first cooling hole forming portion includes a first cross-sectional area and said second cooling hole forming portion includes a second cross sectional area that is less than said first cross-sectional area, and said first cooling hole forming portion extends a first distance from said core body and said second cooling hole forming portion extends a second distance from said core body that is less than said first distance.
A method, comprising: receiving a request to perform a recovery operation; determining a plan for recovering a backup from multiple copies of the backup, wherein each of the copies is identical, and each of the copies resides at a different respective location; downloading, in parallel, different respective portions of the backup from each of the multiple copies in accordance with the plan, wherein the different portions, and the respective copies from which the different portions are downloaded, are selected based on respective throughputs associated with each location; rebuilding the backup from the portions downloaded from the multiple copies; and recovering the rebuilt backup. receiving a request to perform a recovery operation; determining a plan for recovering a backup from multiple copies of the backup, wherein each of the copies is identical, and each of the copies resides at a different respective location; downloading, in parallel, different respective portions of the backup from each of the multiple copies in accordance with the plan, wherein the different portions, and the respective copies from which the different portions are downloaded, are selected based on respective throughputs associated with each location; rebuilding the backup from the portions downloaded from the multiple copies; and recovering the rebuilt backup.