mhurhangee/ep-ind-claims huggingface dataset:
Ventilation box for ventilating the passenger compartment of a vehicle, said ventilation box having a first lateral face and a second lateral face which are spaced apart from one another in a transverse direction, the ventilation box defining internally a plurality of ducts which are placed side by side in a longitudinal direction perpendicular to the transverse direction, each duct opening in the first lateral face through a first opening and in the second lateral face through a second opening, the ventilation box comprising a frame which surrounds the ducts, said frame extending in a longitudinal plane which is substantially perpendicular to the transverse direction, and a plate which defines a base of the ducts, said plate extending transversely from the first lateral face to the second lateral face, characterised in that each duct comprises a duct portion having a main section, taken in a main plane parallel to the transverse direction, in the form of a chicane, and in that said plate is inclined relative to the frame and forms in particular with the frame, in a transverse plane perpendicular to the longitudinal direction, an angle (γ) of between 0 and 45°, preferably between 10° and 45°.
Rotary drive system of a motor vehicle wheel, said system comprising a rolling bearing having a rotating member mounted in rotation with respect to a member fixed by way of at least one row of rolling bodies, said rotating member comprising means for associating the wheel and said system comprising a bowl for transmitting an engine torque to said rotating member, said system further comprising a gear structure which has geometric means secured respectively to the rotating member and to the transmission bowl, said geometric means being arranged to be interlocked over an axial path to ensure the transmission of said engine torque, said system being characterised in that it comprises a coating which is inserted between the geometric means respectively of the rotating member and of the transmission bowl, said coating being arranged to, over the axial interlocking path, be embed itself at the interface between the geometric means of the rotating member and of the transmission bowl in order to ensure sealing at the level of said interface.
A measurement system comprising: a detector configured to detect a contact state of a bubble with respect to a wall, the bubble being included in a fluid that is in contact with the wall; and a controller configured to acquire a state of at least one of the wall, the fluid, and the bubble based on the contact state of the bubble with respect to the wall, wherein the fluid is positioned in an area surrounded by the wall, the detector is configured to detect the contact state of the bubble on an inside of the area surrounded by the wall, the wall is at least a portion of an inner wall of a tube through which the fluid flows, the detector is configured to detect the contact state of the bubble with respect to the inner wall while the fluid is flowing through the tube, the detector is configured to detect a number of bubbles in contact with the wall at a first time as a first number of bubbles and detect a number of bubbles in contact with the wall at a second time as a second number of bubbles, the second time being a predetermined time after the first time, and the controller is configured to acquire the state of at least one of the wall, the fluid, and the bubble based on a comparison between the first number of bubbles and the second number of bubbles. a detector configured to detect a contact state of a bubble with respect to a wall, the bubble being included in a fluid that is in contact with the wall; and a controller configured to acquire a state of at least one of the wall, the fluid, and the bubble based on the contact state of the bubble with respect to the wall, wherein the fluid is positioned in an area surrounded by the wall, the detector is configured to detect the contact state of the bubble on an inside of the area surrounded by the wall, the wall is at least a portion of an inner wall of a tube through which the fluid flows, the detector is configured to detect the contact state of the bubble with respect to the inner wall while the fluid is flowing through the tube, the detector is configured to detect a number of bubbles in contact with the wall at a first time as a first number of bubbles and detect a number of bubbles in contact with the wall at a second time as a second number of bubbles, the second time being a predetermined time after the first time, and the controller is configured to acquire the state of at least one of the wall, the fluid, and the bubble based on a comparison between the first number of bubbles and the second number of bubbles.
Spinning bobbin holder for a twisting machine, in particular a ring twisting machine, comprising - a receiving body rotatably mounted about a holder axis and having a receiving region for arranging a spinning bobbin on the receiving body, and - at least one stop which is adjustably arranged in the receiving region, characterized in that the at least one stop is arranged between a use position and a retracted position such that - in the use position, the at least one stop protrudes from the surface of the receiving body such that the receiving region is shortened to suitably receive a shortened spinning bobbin, and - in the retracted position, the at least one stop is lowered to such an extent that the receiving region is not shortened and a regular spinning bobbin can be arranged in the receiving region so as to project over the retracted stop. - a receiving body rotatably mounted about a holder axis and having a receiving region for arranging a spinning bobbin on the receiving body, and - at least one stop which is adjustably arranged in the receiving region, - in the use position, the at least one stop protrudes from the surface of the receiving body such that the receiving region is shortened to suitably receive a shortened spinning bobbin, and - in the retracted position, the at least one stop is lowered to such an extent that the receiving region is not shortened and a regular spinning bobbin can be arranged in the receiving region so as to project over the retracted stop.
A composition suitable for intravenous or intra-arterial injection, the composition comprising a stable diglyceride oil-in-water emulsion; wherein the emulsion comprises 10% by weight of a DG oil, the esterified fatty acids of the DG oil being at least about 90% n-3 fatty acids and comprising DHA and EPA; wherein the emulsion has a mean particle size of from 110 nm to 180 nm with a polydispersity index of 0.3 or less, and a zeta potential of about -30 mV or more negative than -30 mV; wherein the emulsion further comprises phospholipid emulsifier, which comprises phosphatidylcholine; and wherein the emulsion optionally further comprises oleic acid emulsifier, which is optionally present at from about 0.01% to about 0.1% by weight. wherein the emulsion further comprises phospholipid emulsifier, which comprises phosphatidylcholine; and wherein the emulsion optionally further comprises oleic acid emulsifier, which is optionally present at from about 0.01% to about 0.1% by weight.
A method of making a welded assembly comprising: determining a gap profile between a first part and a second part with an ultrasonic inspection device that transmits an ultrasonic beam, wherein the gap profile is determined by transmitting the ultrasonic beam and receiving reflected signals that are indicative of a gap between the first part and the second part; characterised in that the method further comprises: determining whether a gap of the gap profile exceeds a gap threshold value; selecting weld parameters based on the gap profile when the gap does not exceed the gap threshold value; and welding the first part to the second part based on the selected weld parameters to form a weld (64, 200). determining a gap profile between a first part and a second part with an ultrasonic inspection device that transmits an ultrasonic beam, wherein the gap profile is determined by transmitting the ultrasonic beam and receiving reflected signals that are indicative of a gap between the first part and the second part; characterised in that the method further comprises: determining whether a gap of the gap profile exceeds a gap threshold value; selecting weld parameters based on the gap profile when the gap does not exceed the gap threshold value; and welding the first part to the second part based on the selected weld parameters to form a weld (64, 200). determining whether a gap of the gap profile exceeds a gap threshold value; selecting weld parameters based on the gap profile when the gap does not exceed the gap threshold value; and welding the first part to the second part based on the selected weld parameters to form a weld (64, 200).
A system for supporting a middleware machine environment comprising a switched communications fabric connected with a plurality of end nodes, the system comprising: one or more gateway nodes (308, 309) that contain one or more microprocessors; a plurality of gateways (302, 303) that reside on the one or more gateway nodes, wherein the gateways are in a subnet with a plurality of host servers (304, 305, 306, 307), wherein each host server is associated with one or more virtual network interface cards, vNICs, thereon; a plurality of virtual hubs, vHUBs, (311, 312, 313) on the gateways, wherein each vHUB is associated with one or more said vNICs, wherein the gateways are adapted to connect with an external network, and each gateway is further adapted to: forward a multicast packet to both the external network and the plurality of host servers via the plurality of vHUBs, and prevent multicast packet traffic loops between the subnet and the external network by detecting whether an outgoing multicast packet originated from a vNIC associated with a vHUB on that gateway, and only forwarding the outgoing multicast packet to the external network, when the outgoing multicast packet originated from a vNIC associated with a vHUB on that gateway. one or more gateway nodes (308, 309) that contain one or more microprocessors; a plurality of gateways (302, 303) that reside on the one or more gateway nodes, wherein the gateways are in a subnet with a plurality of host servers (304, 305, 306, 307), wherein each host server is associated with one or more virtual network interface cards, vNICs, thereon; a plurality of virtual hubs, vHUBs, (311, 312, 313) on the gateways, wherein each vHUB is associated with one or more said vNICs, wherein the gateways are adapted to connect with an external network, and each gateway is further adapted to: forward a multicast packet to both the external network and the plurality of host servers via the plurality of vHUBs, and prevent multicast packet traffic loops between the subnet and the external network by detecting whether an outgoing multicast packet originated from a vNIC associated with a vHUB on that gateway, and only forwarding the outgoing multicast packet to the external network, when the outgoing multicast packet originated from a vNIC associated with a vHUB on that gateway. forward a multicast packet to both the external network and the plurality of host servers via the plurality of vHUBs, and prevent multicast packet traffic loops between the subnet and the external network by detecting whether an outgoing multicast packet originated from a vNIC associated with a vHUB on that gateway, and only forwarding the outgoing multicast packet to the external network, when the outgoing multicast packet originated from a vNIC associated with a vHUB on that gateway.
An illumination device for a spectral optical measurement device, the illumination device comprising: a light source arranged with respect to an optical axis of the illumination device which, during a measurement operation, extends along a normal to a center point of an area of a sample to be illuminated; and a mirror comprising at least one mirror segment having a shape of a ring or of a segment of a ring centered on the optical axis, each one of the at least one mirror segments having an internal reflective surface arranged such that, during the measurement operation, the internal reflective surface receives light emitted from the light source and reflects the light over the area of the sample to be illuminated, the mirror segment comprising at least two facets along a direction which runs circular around the optical axis, characterized in that the internal reflective surface of each facet has a freeform shape in a cross-section through the internal reflective surface in a plane parallel to the optical axis, and, in a cross-section in a plane perpendicular to the optical axis, the internal reflective surface of each facet being represented by a straight line, wherein a freeform shape is defined as being an irregular shape, including aspheric surfaces, and excludes regular shapes, such as flat, elliptical, parabolic, or hyperbolic, and shapes having common focal points over the radial cross-section. a light source arranged with respect to an optical axis of the illumination device which, during a measurement operation, extends along a normal to a center point of an area of a sample to be illuminated; and a mirror comprising at least one mirror segment having a shape of a ring or of a segment of a ring centered on the optical axis, each one of the at least one mirror segments having an internal reflective surface arranged such that, during the measurement operation, the internal reflective surface receives light emitted from the light source and reflects the light over the area of the sample to be illuminated, the mirror segment comprising at least two facets along a direction which runs circular around the optical axis, characterized in that the internal reflective surface of each facet has a freeform shape in a cross-section through the internal reflective surface in a plane parallel to the optical axis, and, in a cross-section in a plane perpendicular to the optical axis, the internal reflective surface of each facet being represented by a straight line, wherein a freeform shape is defined as being an irregular shape, including aspheric surfaces, and excludes regular shapes, such as flat, elliptical, parabolic, or hyperbolic, and shapes having common focal points over the radial cross-section.
Disc brake for a utility vehicle, with a brake caliper which comprises a accommodation chamber for a brake application device, said chamber being closed by a closure plate in sealing contact therewith and connected thereto by a material-merged connection, wherein the application device is provided with a cross-piece that can be displaced relative to the closure plate and is loaded by means of a brake lever and by a compression spring, in which at least one brake piston is fitted, which extends through a through-going opening in the closure plate, on which a bellows that seals the opening around its edge is held at one end, while on the other side the bellows is connected to the brake piston, characterised in that at least in the area with which the compression spring is in contact the closure plate has a reinforcing element in the sense of a doubled thickness.
Accumulator cell with two terminals (10, 21), characterized in that one terminal is provided with a coating which is composted of a metal which is identical to the metal from which the second terminal is composed.
A method for device control, being applied to an electronic device with a touch display screen and comprising: receiving (101, 201) information of a first gesture; displaying at least one icon on condition that the first gesture comprises a preset trigger gesture, each icon representing one window mode; obtaining (103, 203) a gesture end position of the first gesture; determining (104, 204) a window mode represented by an icon as a target window mode, upon detecting that the gesture end position of the first gesture is at a display position of the icon; and obtaining (105, 205) information of a target application, and displaying the information of the target application in the target window mode, the target application being an application corresponding to information displayed on the touch display screen when the first gesture is received. receiving (101, 201) information of a first gesture; displaying at least one icon on condition that the first gesture comprises a preset trigger gesture, each icon representing one window mode; obtaining (103, 203) a gesture end position of the first gesture; determining (104, 204) a window mode represented by an icon as a target window mode, upon detecting that the gesture end position of the first gesture is at a display position of the icon; and obtaining (105, 205) information of a target application, and displaying the information of the target application in the target window mode, the target application being an application corresponding to information displayed on the touch display screen when the first gesture is received.
Method for operating a turbomachine, wherein a fluid guided through the turbomachine transmits kinetic energy to the turbomachine, the fluid, or at least one fluid component of the fluid, is compressible, and the compressible fluid is accelerated upstream of the turbomachine in the direction of flow in a convergent nozzle, and a divergent nozzle is arranged downstream of the turbomachine in the direction of flow, and the flow velocity of the fluid, which is reduced in the turbomachine during the transmission of the kinetic energy, is increased directly downstream of the turbomachine by a force F B, generated by a force field and acting in the direction of flow, by converting potential energy of the fluid into kinetic energy of the fluid to such an extent that the pressure of the fluid, which is reduced in the turbomachine, is thereby increased again to at least 0.1 times the pressure of the fluid upstream of the turbomachine, wherein the force F B acting in the direction of flow is the gravitational force, a centrifugal force, a magnetic force, an electrical force or a mechanical force provided by a further turbomachine.
A method in a user equipment, UE, for determining a per carrier additional maximum power reduction, MPR, needed by the UE in order to meet emission requirements for dual carrier operation of adjacent carriers in absence of shared scheduling information between the adjacent carriers, each carrier of the adjacent carriers having an associated respective one of multiple different radio access technologies RATs, the method comprising: determining a per carrier allowed additional MPR for a worst case allocation for the dual carrier operation of the adjacent carriers of the different RATs in absence of the shared scheduling information, the determination for each carrier of the adjacent carriers for use with the different RATs including determining a total power reduction allowed for meeting the emission requirements for each of one or more respective allocation ratios, determining a fraction of a total power allocated to a carrier of the adjacent carriers for each of one or more respective allocation ratios, where for each of the one or more respective allocation ratios, determining a per carrier additional power reduction as a sum of the total power reduction allowed for meeting the emission requirements and a negative of ten times a base ten logarithm of the fraction of the total power allocated to the carrier, comparing the per carrier additional power reduction of the one or more respective allocations, and selecting the per carrier additional power reduction of the one or more respective allocation ratios, which has a highest value, as the worst case per carrier additional MPR for each of an associated one of the different RATs; and using the per carrier additional MPR corresponding to the worst case per carrier additional MPR in connection with transmissions when operating in a particular one of the adjacent carriers corresponding to the associated one of the different RATs. determining a total power reduction allowed for meeting the emission requirements for each of one or more respective allocation ratios, determining a fraction of a total power allocated to a carrier of the adjacent carriers for each of one or more respective allocation ratios, where for each of the one or more respective allocation ratios, determining a per carrier additional power reduction as a sum of the total power reduction allowed for meeting the emission requirements and a negative of ten times a base ten logarithm of the fraction of the total power allocated to the carrier, comparing the per carrier additional power reduction of the one or more respective allocations, and selecting the per carrier additional power reduction of the one or more respective allocation ratios, which has a highest value, as the worst case per carrier additional MPR for each of an associated one of the different RATs; and using the per carrier additional MPR corresponding to the worst case per carrier additional MPR in connection with transmissions when operating in a particular one of the adjacent carriers corresponding to the associated one of the different RATs.
A process for preparing ethyleneamines and/or alkanolamines, comprising the following steps: 1) reacting MEG with ammonia in the presence of hydrogen and an amination catalyst; 2) removing hydrogen and ammonia from the reaction output from stage 1, wherein the removal of hydrogen and ammonia in stage 2 comprises the following steps: 2-1) separating the reaction output from stage 1 into a gaseous phase comprising ammonia and hydrogen, and a liquid phase comprising ethyleneamines and/or alkanolamines, 2-2) passing the gaseous phase from stage 2-1) through one or more condensers to obtain one or more liquid phases in which ammonia has been enriched, and a gaseous phase in which hydrogen has been enriched, 2-3) contacting the gaseous phase from stage 2-2) with MEG so as to obtain a liquid phase comprising MEG and ammonia and a gaseous phase comprising hydrogen and optionally ammonia. 1) reacting MEG with ammonia in the presence of hydrogen and an amination catalyst; 2) removing hydrogen and ammonia from the reaction output from stage 1, wherein the removal of hydrogen and ammonia in stage 2 comprises the following steps: 2-1) separating the reaction output from stage 1 into a gaseous phase comprising ammonia and hydrogen, and a liquid phase comprising ethyleneamines and/or alkanolamines, 2-2) passing the gaseous phase from stage 2-1) through one or more condensers to obtain one or more liquid phases in which ammonia has been enriched, and a gaseous phase in which hydrogen has been enriched, 2-3) contacting the gaseous phase from stage 2-2) with MEG so as to obtain a liquid phase comprising MEG and ammonia and a gaseous phase comprising hydrogen and optionally ammonia. 2-1) separating the reaction output from stage 1 into a gaseous phase comprising ammonia and hydrogen, and a liquid phase comprising ethyleneamines and/or alkanolamines, 2-2) passing the gaseous phase from stage 2-1) through one or more condensers to obtain one or more liquid phases in which ammonia has been enriched, and a gaseous phase in which hydrogen has been enriched, 2-3) contacting the gaseous phase from stage 2-2) with MEG so as to obtain a liquid phase comprising MEG and ammonia and a gaseous phase comprising hydrogen and optionally ammonia.