mhurhangee/ep-ind-claims huggingface dataset:
A container comprising: a substantially hollow body including a plurality of body walls extending vertically from a bottom portion; an extension portion rotatably coupled to an outward-facing surface of a body wall among the plurality of body walls, the extension portion configured to rotate to an active position in which the extension portion extends outwardly from the body wall; and a support stand having a proximal end coupled to the outward-facing surface of the body wall and a distal end, the support stand configured to move between at least a stowed position in which the support stand is positioned against or proximate to the outward-facing surface of the body wall and a support position in which the support stand extends outwardly from the body wall, wherein, when the support stand is in the support position, the distal end of the support stand engages with an underside of the extension portion such that the support stand prevents downward rotation of the extension portion, characterized in that the extension portion is a handle including a pair of outwardly extending arms connected via a transversely extending crossbar. a substantially hollow body including a plurality of body walls extending vertically from a bottom portion; an extension portion rotatably coupled to an outward-facing surface of a body wall among the plurality of body walls, the extension portion configured to rotate to an active position in which the extension portion extends outwardly from the body wall; and a support stand having a proximal end coupled to the outward-facing surface of the body wall and a distal end, the support stand configured to move between at least a stowed position in which the support stand is positioned against or proximate to the outward-facing surface of the body wall and a support position in which the support stand extends outwardly from the body wall, wherein, when the support stand is in the support position, the distal end of the support stand engages with an underside of the extension portion such that the support stand prevents downward rotation of the extension portion, characterized in that the extension portion is a handle including a pair of outwardly extending arms connected via a transversely extending crossbar.
An X-ray scanner comprising: X-ray source means arranged to emit X-rays through an imaging volume from a plurality of X-ray tubes configured into a substantially circular arrangement around an axis of the scanner, each tube containing an X-ray source point; an array of X-ray detectors (24, 26) arranged around the imaging volume and arranged to output detector signals in response to the detection of X-rays; conveying means arranged to convey an object through the imaging volume in a scan direction; processing means arranged to process the detector signals to produce an image data set defining an image of the object; a control means arranged to activate the source points in a predetermined sequence once in each of a sequence of scan cycles; characterized in that the control means is arranged to control the frequency of the scan cycles, and is arranged to adjust the frequency of the scan cycles so as to provide a constant resolution in the scan direction for a plurality of object speeds, and wherein the control means is arranged to control the current of the X-ray tubes so that the current varies in direct proportion to the speed of the conveying means.
A presentation device, comprising: a first sensor unit configured to contact a measurement target and to obtain an electromyographic, EMG, signal from the measurement target; and a display controller configured to control a field of view, FOV, window for displaying a map area based on the EMG signal, characterized in that the display controller is configured to adjust a speed of the FOV window on a map in response to a magnitude of the obtained EMG signal. a first sensor unit configured to contact a measurement target and to obtain an electromyographic, EMG, signal from the measurement target; and a display controller configured to control a field of view, FOV, window for displaying a map area based on the EMG signal, characterized in that the display controller is configured to adjust a speed of the FOV window on a map in response to a magnitude of the obtained EMG signal.
Arrangement for manufacturing a plurality of orthodontic appliances in parallel, comprising an additive printing machine comprising a build platform and configured for additively manufacturing a plurality of teeth models or the plurality of orthodontic appliances in parallel, and a plurality of plates each configured for teeth model printing or orthodontic appliance printing, respectively, by the additive printing machine, whereby each plate comprises a unique machine-readable identifier and each plate is detachable and precisely fixed to the build platform, characterized in that each plate and/or the build platform comprises a magnetic device and/or locking device for detachably and precisely fixing the plate to the build plat form and/or whereby the build platform comprises negative forms for positioning a respective plate therein. an additive printing machine comprising a build platform and configured for additively manufacturing a plurality of teeth models or the plurality of orthodontic appliances in parallel, and a plurality of plates each configured for teeth model printing or orthodontic appliance printing, respectively, by the additive printing machine, whereby each plate comprises a unique machine-readable identifier and each plate is detachable and precisely fixed to the build platform, characterized in that each plate and/or the build platform comprises a magnetic device and/or locking device for detachably and precisely fixing the plate to the build plat form and/or whereby the build platform comprises negative forms for positioning a respective plate therein.
A clock recovery circuit, comprising: a phase detector circuit to receive a data signal representing timing of a transmitter clock signal and to receive a recovered clock signal, the phase detector circuit to produce a phase error signal indicating a phase relationship between the data signal and the recovered clock signal; a clock generation circuit to generate the recovered clock signal; and a feedback circuit to receive the phase error signal, to derive, from the phase error signal, a rate of change of the frequency offset between the transmitter clock signal and the recovered clock signal, and to generate a control signal responsive to the rate of change of the frequency offset; wherein the clock generation circuit is to receive the control signal and to responsively generate the recovered clock signal; wherein the clock recovery circuit is to receive a reference clock signal; and wherein at least one of the transmitter clock signal and the reference clock signal is frequency-modulated. a phase detector circuit to receive a data signal representing timing of a transmitter clock signal and to receive a recovered clock signal, the phase detector circuit to produce a phase error signal indicating a phase relationship between the data signal and the recovered clock signal; a clock generation circuit to generate the recovered clock signal; and a feedback circuit to receive the phase error signal, to derive, from the phase error signal, a rate of change of the frequency offset between the transmitter clock signal and the recovered clock signal, and to generate a control signal responsive to the rate of change of the frequency offset; wherein the clock generation circuit is to receive the control signal and to responsively generate the recovered clock signal; wherein the clock recovery circuit is to receive a reference clock signal; and wherein at least one of the transmitter clock signal and the reference clock signal is frequency-modulated.
A subsea well protection assembly, comprising a base structure configured to rest on the seabed, and a top structure extending upwards from the base structure, wherein the top structure is configured to cover a wellhead space, wherein the wellhead space is configured to accommodate a wellhead of a subsea well, wherein the base structure and/or the top structure is made of a fiber-reinforced composite material, wherein the top structure comprises a top ring section with a rectangular shape defining four corners, wherein the top ring section comprises upwardly protruding wire deflection arrangements between the corners.
A vitrectomy apparatus, comprising: a pressure source; a cut valve connected to the pressure source, the cut valve configured to be turned on and off to provide pressure to selectively extend and retract a vitrectomy cutting device; a plurality of sensors (401, 402, 403) provided at a plurality of points between the pressure source and a vitrectomy handpiece; and a controller configured to selectively provide commands to change pressure source duty cycle according to a function selected from a plurality of functions (701a-701h) when one sensor of the plurality of sensors measures a pressure outside a predetermined pressure range. a pressure source; a cut valve connected to the pressure source, the cut valve configured to be turned on and off to provide pressure to selectively extend and retract a vitrectomy cutting device; a plurality of sensors (401, 402, 403) provided at a plurality of points between the pressure source and a vitrectomy handpiece; and a controller configured to selectively provide commands to change pressure source duty cycle according to a function selected from a plurality of functions (701a-701h) when one sensor of the plurality of sensors measures a pressure outside a predetermined pressure range.
A centering spring (70, 170) for transferring a load from a bearing (72, 172) to an engine static structure (36, 136), the centering spring (70, 170) comprising: first and second rings (82, 182, 84, 184) interconnected by axially extending circumferentially spaced beams (86, 186), an aperture (94, 194) provided between an adjacent pair of the beams (86, 186), characterising in that the first ring (82, 182) is configured to be mounted to the engine static structure (36, 136), the second ring (84, 184) is configured to support the bearing (72, 172), the first ring (82, 182) includes multiple circumferentially spaced lugs (102, 202), each of the lugs (102, 202) axially extends into a corresponding one of the apertures (94, 194), the lugs (102, 202) include a support surface (104, 204) configured to engage the engine static structure (36, 136). first and second rings (82, 182, 84, 184) interconnected by axially extending circumferentially spaced beams (86, 186), an aperture (94, 194) provided between an adjacent pair of the beams (86, 186), characterising in that the first ring (82, 182) is configured to be mounted to the engine static structure (36, 136), the second ring (84, 184) is configured to support the bearing (72, 172), the first ring (82, 182) includes multiple circumferentially spaced lugs (102, 202), each of the lugs (102, 202) axially extends into a corresponding one of the apertures (94, 194), the lugs (102, 202) include a support surface (104, 204) configured to engage the engine static structure (36, 136).
A process for working up a liquid output from a continuous hydroformylation of an olefin feedstock in the presence of a hydroformylation catalyst comprising a rhodium complex having at least one organophosphoric compound as ligand, containing unreacted olefins, alkanes, aldehyde, catalyst liquor and high-boiling by-products; which comprises stripping the liquid product phase with a stripping gas in a product phase stripper, thereby separating a vapor phase containing unreacted olefins, alkanes, aldehyde, from the catalyst residue and high-boiling by-products; recycling at least a part of the residue to the hydroformylation zone; cooling the vapor phase in a product condenser, thereby condensing unreacted olefins, alkanes, aldehyde at least partially out from the stripping gas; and recycling the stripping gas to the product phase stripper; wherein the product phase stripper and the product condenser are operated within a pressure difference of 50 kPa (0.5 bar) or less, and wherein the product phase stripper is operated at a pressure greater than 96.5 kPa (14 psia) and less than 689 kPa (100 psia).
A flame retardant composition comprising, with respect to a flame retardant composition containing 10 to 90 parts by mass of a salt of piperazine and an inorganic phosphorus compound (component) selected from piperazine phosphate, piperazine pyrophosphate, piperazine polyphosphate, or a mixture of at least two of said piperazine salts, and 90 to 10 parts by mass of a salt of melamine and an inorganic phosphorus compound (component) selected from melamine phosphate, melamine pyrophosphate, melamine polyphosphate, or a mixture of at least two of said melamine salts (wherein the total of said component and said component is 100 parts by mass): 0.1 to 5 parts by mass of silicone oil (component); and 0.05 to 10 parts by mass of a monoamide compound of a higher aliphatic carboxylic acid and/or a monoester compound produced by reacting a higher aliphatic carboxylic acid with a monovalent to trivalent alcohol compound (component), wherein the component is at least one compound selected from a group consisting of erucamide, glycerol monostearate, and montanic acid esters. 0.1 to 5 parts by mass of silicone oil (component); and 0.05 to 10 parts by mass of a monoamide compound of a higher aliphatic carboxylic acid and/or a monoester compound produced by reacting a higher aliphatic carboxylic acid with a monovalent to trivalent alcohol compound (component),
Magnetocaloric thermal apparatus comprising a magnetic arrangement defining at least one air gap referred to as a "thermal generation air gap (E 1, E 2)" in which a magnetic field circulates, at least one support in the median plane of the said at least one thermal generation air gap (E 1, E 2) and supporting magnetocaloric elements set out in active areas separated by passive areas devoid of magnetocaloric elements, the active areas having a higher magnetic permeability than the passive areas, a driving device arranged to move the said magnetic arrangement or the said at least one support relative to each other to move said magnetocaloric elements in and out of said at least one thermal generation air gap (E 1, E 2) so as to put them through successive magnetic cycles, said magnetic cycles generating within said driving device an oscillating driving force (Ce) due to an alternation of different magnetic permeabilities between the active areas and the passive areas of said support, with this apparatus also having a magnetic compensation device arranged to create an oscillating magnetic compensation force (Cc) phase-shifted with respect to the oscillating driving force (Ce) of said driving device to generate a resultant oscillating force (Cr) with amplitude of less than the amplitude of the oscillating driving force (Ce), characterized in that said magnetic compensation device is a specific magnetic compensation device, at least partly added to said apparatus, and arranged to create an oscillating magnetic compensation force (Cc) in phase opposition to the oscillating driving force (Ce) of said driving device to create a tendency toward a constant resultant force (Cr), and in that it comprises a first magnetic part and a second magnetic or ferromagnetic part, defining an air gap between each other called the compensation air gap (Ec), in which a magnetic field circulates, while one of the two parts is mechanically coupled to said driving device to be driven synchronously with said magnetic arrangement or said support relatively to the other part, at least one of the two parts having areas of high magnetic permeability alternating with areas of low magnetic permeability to create in said compensation air gap (Ec) said oscillating magnetic compensation (Cc) force.
A vehicle lighting outage detection circuit for a vehicle, comprising: a plurality of parallel branches (134a, 134b) electrically connected at a common positive reference node, a first one of said parallel branches comprising a first branch resistor and a first branch switching device connected in series, a second one of said parallel branches comprising a second branch resistor and a second branch switching device connected in series; and a voltage monitoring device electrically connected to said positive reference node, said voltage monitoring device configured to detect voltage changes at the positive reference node; and a first LED having a cathode coupled to a control input of said first branch switching device and a second LED having a cathode coupled to a control input of said second branch switching device; wherein said first branch switching device is configured to interrupt current flow to said first branch resistor when the first LED has failed, and wherein said second branch switching device is configured to interrupt current flow to said second branch resistor when the second LED has failed. a plurality of parallel branches (134a, 134b) electrically connected at a common positive reference node, a first one of said parallel branches comprising a first branch resistor and a first branch switching device connected in series, a second one of said parallel branches comprising a second branch resistor and a second branch switching device connected in series; and a voltage monitoring device electrically connected to said positive reference node, said voltage monitoring device configured to detect voltage changes at the positive reference node; and a first LED having a cathode coupled to a control input of said first branch switching device and a second LED having a cathode coupled to a control input of said second branch switching device; wherein said first branch switching device is configured to interrupt current flow to said first branch resistor when the first LED has failed, and wherein said second branch switching device is configured to interrupt current flow to said second branch resistor when the second LED has failed.
Submarine with a device for separating carbon dioxide from a gas mixture, wherein the device has a solid material for taking up carbon dioxide, wherein the device has a heating unit for heating the solid material, wherein the device has a shell, wherein the shell is evacuable, wherein the device has a cooling device, characterized in that the cooling device is water injection.
Doffer device for a spinning machine having a plurality of spinning stations, for removing full bobbins from spindles of the spinning machine and for placing empty tubes on the spindles, • comprising a plurality of gripping devices (10, 11, 12) which are each assigned to a spinning station and have a rotatable gripping unit (20, 21, 22); • wherein the gripping unit (20, 21, 22) comprises a bobbin gripper (40, 41, 42) for gripping the full bobbin and a tube gripper (30, 31, 32) for gripping the empty tube; • wherein the gripping unit (20, 21, 22) is rotatable between a gripping position in which the bobbin can be gripped on the spindle, and a placement position in which the tube can be placed on the spindle, characterized in that • the bobbin gripper (40, 41, 42) has a bobbin receptacle which is open at the bottom and the tube gripper (30, 31, 32) has a tube receptacle which is open at the bottom which can be placed over the bobbin and the tube, respectively, for gripping from above, and • wherein the tube gripper and the bobbin gripper are cylindrical or conical and can be operated pneumatically using a membrane; and • comprising a rotating device for rotating the gripping units (20, 21, 22) about an axis of rotation wherein the rotating device being designed such that it can rotate two neighboring gripping units (20, 21, 22) with a time lag from one another; and • wherein the rotating device is driven by a toothed belt. • comprising a plurality of gripping devices (10, 11, 12) which are each assigned to a spinning station and have a rotatable gripping unit (20, 21, 22); • wherein the gripping unit (20, 21, 22) comprises a bobbin gripper (40, 41, 42) for gripping the full bobbin and a tube gripper (30, 31, 32) for gripping the empty tube; • wherein the gripping unit (20, 21, 22) is rotatable between a gripping position in which the bobbin can be gripped on the spindle, and a placement position in which the tube can be placed on the spindle, characterized in that • the bobbin gripper (40, 41, 42) has a bobbin receptacle which is open at the bottom and the tube gripper (30, 31, 32) has a tube receptacle which is open at the bottom which can be placed over the bobbin and the tube, respectively, for gripping from above, and • wherein the tube gripper and the bobbin gripper are cylindrical or conical and can be operated pneumatically using a membrane; and • comprising a rotating device for rotating the gripping units (20, 21, 22) about an axis of rotation wherein the rotating device being designed such that it can rotate two neighboring gripping units (20, 21, 22) with a time lag from one another; and • wherein the rotating device is driven by a toothed belt.
A composition comprising Sotagliflozin or a pharmaceutically acceptable salt thereof; and a tyrosine kinase activity inhibitor; wherein the tyrosine kinase activity inhibitor is at least one of ENMD-2076, Tivozanib, Genistein, Ponatinib, Daphnetin, Dacomitinib, Varlitinib, Icotinib, Osimertinib mesylate, Osimertinib, Nazartinib, AZD3759, Anlotinib, Avitinib or Lazertinib, Lidocaine hydrochloride, 4-[ -2-[5-[ -1-(3,5-dichloro-4-pyridyl)ethoxy]-1H -indazol-3-yl]vinyl]-1H-pyrazole-1-ethanol, Axitinib, Nintedanib, Cediranib, Pazopanib HCl, Sunitinib malate, Brivanib, Cabozantinib, Brivanib Alaninate, Lenvatinib, Regorafenib, ENMD-2076 L-(+)-Tartaric acid, Telatinib, Pazopanib, Cabozantinib malate, Regorafenib monohydrate, Nintedanib Ethanesulfonate salt, Lenvatinib mesylate, Cediranib maleate, Fruquintinib, Sunitinib, Olmutinib, Sitravatinib, Vandetanib, Gefitinib, Afatinib, Apatinib, Erlotinib or Sorafenib, Taxifolin or Vitamin E. Sotagliflozin or a pharmaceutically acceptable salt thereof; and a tyrosine kinase activity inhibitor; wherein the tyrosine kinase activity inhibitor is at least one of ENMD-2076, Tivozanib, Genistein, Ponatinib, Daphnetin, Dacomitinib, Varlitinib, Icotinib, Osimertinib mesylate, Osimertinib, Nazartinib, AZD3759, Anlotinib, Avitinib or Lazertinib, Lidocaine hydrochloride, 4-[ -2-[5-[ -1-(3,5-dichloro-4-pyridyl)ethoxy]-1H -indazol-3-yl]vinyl]-1H-pyrazole-1-ethanol, Axitinib, Nintedanib, Cediranib, Pazopanib HCl, Sunitinib malate, Brivanib, Cabozantinib, Brivanib Alaninate, Lenvatinib, Regorafenib, ENMD-2076 L-(+)-Tartaric acid, Telatinib, Pazopanib, Cabozantinib malate, Regorafenib monohydrate, Nintedanib Ethanesulfonate salt, Lenvatinib mesylate, Cediranib maleate, Fruquintinib, Sunitinib, Olmutinib, Sitravatinib, Vandetanib, Gefitinib, Afatinib, Apatinib, Erlotinib or Sorafenib, Taxifolin or Vitamin E.
An attachable and detachable structure (100, 200), comprising: a superficial part having an attachment part and a non-attachment part, and a base (40, 140) that supports the superficial part, the base (40, 140) including a fixed layer that supports the attachment part, characterised by further including a movable layer (47, 147) that supports the non-attachment part, wherein the base (40, 140) drives correspondingly the attachment part and the non-attachment part by applying a compressive force or a tensile force to the base to move one of the attachment part and the non-attachment part forward or backward with respect to each other. a superficial part having an attachment part and a non-attachment part, and a base (40, 140) that supports the superficial part, the base (40, 140) including a fixed layer that supports the attachment part, characterised by further including a movable layer (47, 147) that supports the non-attachment part, wherein the base (40, 140) drives correspondingly the attachment part and the non-attachment part by applying a compressive force or a tensile force to the base to move one of the attachment part and the non-attachment part forward or backward with respect to each other.