mhurhangee/ep-ind-claims huggingface dataset:
A method for assisting a host vehicle in avoiding a collision with a target, the method comprises: - detecting a target in the vicinity of the vehicle; - determining that the host vehicle is travelling on a collision course with the target; - when a collision with the target is predicted to occur within a predetermined time period and no driver initiated steering action for avoiding the collision course has been detected, controlling a steering control system to provide an initial steering torque action to the steerable wheels of the host vehicle, the initial steering torque action provides an initial steering action towards the same side of the target as a detected safe side of the target; - detecting a driver initiated steering action in response to the initial steering torque action, - determining a stability parameter value indicative of the driving stability of the vehicle, and - when the stability parameter value indicates that the host vehicle is stable, providing an intervening action for altering the present driving course of the host vehicle for avoiding a collision with the target. - detecting a target in the vicinity of the vehicle; - determining that the host vehicle is travelling on a collision course with the target; - when a collision with the target is predicted to occur within a predetermined time period and no driver initiated steering action for avoiding the collision course has been detected, controlling a steering control system to provide an initial steering torque action to the steerable wheels of the host vehicle, the initial steering torque action provides an initial steering action towards the same side of the target as a detected safe side of the target; - detecting a driver initiated steering action in response to the initial steering torque action, - determining a stability parameter value indicative of the driving stability of the vehicle, and - when the stability parameter value indicates that the host vehicle is stable, providing an intervening action for altering the present driving course of the host vehicle for avoiding a collision with the target.
A mixture comprising: (i) a refrigerator oil composition comprising (a) a synthetic base oil comprising 50% by mass or more of a polyvinyl ether-based compound, and (b) 0.3 to 10% by mass, based on the refrigerator oil composition, of a monohydrocarbyl ether of a glycerin condensate represented by the following general formula: wherein R 10 represents a straight-chain or branched alkyl or alkenyl group having 6 to 20 carbon atoms, and p represents an integer of 4 to 20; and (ii) a natural refrigerant selected from a hydrocarbon, carbon dioxide or ammonia, a hydrofluorcarbon-based refrigerant, a fluorine-containing organic compound-based refrigerant, a refrigerant obtained by combining a fluorine-containing organic compound-based solvent and a saturated fluorinated hydrocarbon compound, or a refrigerant obtained by combining fluoroiodomethane and propene; wherein the mass ratio of the refrigerant to the refrigerator oil composition is in the range 99/1 to 10/90. (i) a refrigerator oil composition comprising (a) a synthetic base oil comprising 50% by mass or more of a polyvinyl ether-based compound, and (b) 0.3 to 10% by mass, based on the refrigerator oil composition, of a monohydrocarbyl ether of a glycerin condensate represented by the following general formula: wherein R 10 represents a straight-chain or branched alkyl or alkenyl group having 6 to 20 carbon atoms, and p represents an integer of 4 to 20; and (ii) a natural refrigerant selected from a hydrocarbon, carbon dioxide or ammonia, a hydrofluorcarbon-based refrigerant, a fluorine-containing organic compound-based refrigerant, a refrigerant obtained by combining a fluorine-containing organic compound-based solvent and a saturated fluorinated hydrocarbon compound, or a refrigerant obtained by combining fluoroiodomethane and propene; wherein the mass ratio of the refrigerant to the refrigerator oil composition is in the range 99/1 to 10/90.
Infusion group, in particular for a machine for preparing an infused drink by means of a capsule or pod containing an aromatic substance, comprising: - a female infusor, defining an infusion chamber suitable for receiving a capsule, - a male infusor, suitable for cooperating with said female infusor so as to at least partially close said infusion chamber, wherein at least said male infusor is a mobile infusor, movable in relation to the female infusor between a rearward open position and a forward closed position of the infusion chamber, the male infusor and the female infusor being aligned long a main axis when the male infusor is in the forward position, characterised in that, during the rearward movement of the mobile infusor from the forward position to open the infusion chamber, the male infusor inclines downwards in relation to a horizontally-oriented main axis to promote extraction of the capsule or pod from said infusion chamber, said male infusor being guided to incline when the distance between the two infusors (3, 5) is smaller than the thickness or depth of the capsule. - a female infusor, defining an infusion chamber suitable for receiving a capsule, - a male infusor, suitable for cooperating with said female infusor so as to at least partially close said infusion chamber,
Method for operating a delivery device for delivering a reducing agent from a reducing agent tank into an exhaust-gas treatment device of an internal combustion engine of a motor vehicle, wherein during the operation of the internal combustion engine, a ventilation process of the delivery device takes place at least intermittently, wherein at least the following steps are carried out: a) registering a ventilation process; b) activating a timing unit with a preset time interval and/or activating a mass flow summing unit with a preset total mass flow; c) waiting for the present time interval to elapse and/or waiting until the preset total mass flow is reached; and d) carrying out a ventilation process. a) registering a ventilation process; b) activating a timing unit with a preset time interval and/or activating a mass flow summing unit with a preset total mass flow; c) waiting for the present time interval to elapse and/or waiting until the preset total mass flow is reached; and d) carrying out a ventilation process.
Additive mixtures for plastics, comprising - phosphinic salt of the formula as component A in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, preferably 2 or 3, and p = (4 - m) / 2 - compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component B - phosphonic salt of the formula II as component C in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, preferably 2 or 3, and q = (4 - n) / 2, and - antimony- or fluorine-doped tin oxide, indium tin oxide, antimony oxide, indium oxide, tinstone, cassiterite, copper hydroxide phosphate/antimony phosphate mixtures, tin-containing metal oxides, tin oxide-coated mica, indium hydroxide, tin antimonate, indium antimonide, potassium antimonate, sodium antimonate, antimony phosphate, antimony pyrophosphate, antimony polyphosphate, antimony hydrogenphosphite ((SbO)H 2 PO 3), zinc stannate, zinc hydroxystannate, tin oxalate (tin content 0.02-3.8%), tin phosphate, tin pyrophosphate and tin polyphosphate as component D. - phosphinic salt of the formula as component A in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, preferably 2 or 3, and p = (4 - m) / 2 in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, preferably 2 or 3, and p = (4 - m) / 2 - compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component B - phosphonic salt of the formula II as component C in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, preferably 2 or 3, and q = (4 - n) / 2, and in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, preferably 2 or 3, and q = (4 - n) / 2, and - antimony- or fluorine-doped tin oxide, indium tin oxide, antimony oxide, indium oxide, tinstone, cassiterite, copper hydroxide phosphate/antimony phosphate mixtures, tin-containing metal oxides, tin oxide-coated mica, indium hydroxide, tin antimonate, indium antimonide, potassium antimonate, sodium antimonate, antimony phosphate, antimony pyrophosphate, antimony polyphosphate, antimony hydrogenphosphite ((SbO)H 2 PO 3), zinc stannate, zinc hydroxystannate, tin oxalate (tin content 0.02-3.8%), tin phosphate, tin pyrophosphate and tin polyphosphate as component D.
Dental implant and prosthetic/prosthodontic piece unit, said unit comprising dental implant provided with an anti-rotational area and disposed along a longitudinal axis, the anti-rotational area formed by four equal anti-rotational components defining four equal lobules, wherein each anti-rotational component comprises a series of five arcs (21, 22, 23, 24, 25) tangent to each other and determined by respective radii (R1, R2, R3), and a prosthetic/prosthodontic piece provided with an anti-rotational area, the anti-rotational area formed by four equal anti-rotational components defining four equal lobules, wherein each anti-rotational component comprises a series of five arcs (21', 22', 23', 24', 25') tangent to each other and determined by respective radii (R1', R2', R3'), wherein the implant and the piece can be assembled together, with said assembly comprising the connection between both anti-rotational areas (6, 16), presenting connection clearances and areas of contact, wherein the distance of said areas of contact to the longitudinal axis is greater than the distance of said clearances to said longitudinal axis, and wherein there is at least one clearance between each anti-rotational component of the implant and its respective anti-rotational component of the piece.
A method for determining a color of an interface control, wherein the method comprises: detecting a touch signal of a touch display of the terminal device and a position of the touch display from which the touch signal comes; acquiring at least one pixel from a desktop wallpaper; acquiring a color value of the at least one pixel; and determining a color value of each pixel in the interface control according to the color value of the at least one pixel, wherein the acquiring at least one pixel from a desktop wallpaper comprises: acquiring a target image block from the desktop wallpaper according to the detected position, wherein a position of the target image block in the desktop wallpaper is corresponding to the position of the image block presented at the detected position, wherein the target image block comprises the at least one pixel. detecting a touch signal of a touch display of the terminal device and a position of the touch display from which the touch signal comes; acquiring at least one pixel from a desktop wallpaper; acquiring a color value of the at least one pixel; and determining a color value of each pixel in the interface control according to the color value of the at least one pixel, wherein the acquiring at least one pixel from a desktop wallpaper comprises: acquiring a target image block from the desktop wallpaper according to the detected position, wherein a position of the target image block in the desktop wallpaper is corresponding to the position of the image block presented at the detected position, wherein the target image block comprises the at least one pixel. acquiring a target image block from the desktop wallpaper according to the detected position, wherein a position of the target image block in the desktop wallpaper is corresponding to the position of the image block presented at the detected position, wherein the target image block comprises the at least one pixel.
Method for passivating an optical fiber, wherein the optical fiber is SiO 2 co-doped with GeO 2 and P 2 O 5, comprising the step of heating the optical fiber in an atmosphere containing deuterium at a temperature in the range 65-100 degrees C for at least 2 hours, wherein the atmosphere comprises 0.25-0.75 atmospheres of deuterium.
A cutting block for fixing relative to a bone for guiding a saw blade during a step in an orthopaedic surgical procedure in which the bone is cut, the cutting block comprising: a. a body having a top surface for guiding a saw blade, b. a top plate which is connected to the body and which can move between a first position in which the top plate is spaced apart from the body and a second position in which the top surface of the top plate is contiguous with and an extension of the top surface of the body, in which the top plate has first and second resiliently deformable arms (31, 32) extending from it, spaced apart along the top plate, in which each of the first and second arms has a pin (35a, 35b, 36a, 36b) extending transversely from it and in which the body has first and second recesses (15, 16) formed in it extending substantially perpendicularly to the top surface of the body, in which the first and second arms on the top plate can be received so that the arms and the recesses define the path for movement of the top plate relative to the body between the first and second positions, and in which each of the recesses has a profiled surface provided by a groove (19a, 19b, 20a, 20b) which is cut in a wall (10, 10b) of the body, each groove being curved when viewed in the direction which is defined by the pin which slides in the groove, and against which the respective pin of each deformable arm acts during movement of the top plate relative to the body between the first and second positions so as to cause the arm to deform, characterised in that the deformation of each of the arms is greater when the top plate is in an intermediate position between the first and second positions than when it is in each of the first and second positions, so that the top plate is biased away from the intermediate position towards the first and second positions. a. a body having a top surface for guiding a saw blade, b. a top plate which is connected to the body and which can move between a first position in which the top plate is spaced apart from the body and a second position in which the top surface of the top plate is contiguous with and an extension of the top surface of the body,
A system for monitoring wear state of the wear plates which are positioned on the equipment exposing to the physical and mechanical wear and which aims to prolong the lifespan of the equipment, comprising the following; - at least one housing, which is mounted on the wear plate and is worn simultaneously together with the wear plate, - at least one tag housing, which is affixed on the housing and ensures to attach at least a radio frequency identification tag thereon, - said at least one radio frequency identification tag, gives a signal to carry out the signal exchange with the tag reader and antenna system, - a wear plate, that ensures to prolong the lifespan of the equipment as it is mounted on the equipments those are exposed to physical and mechanical wear - at least a tag reader and antenna system, which receives a signal from the radio frequency identification (RFID) tag to perform the signal exchange, and characterized in that it further comprises - a wear sensing system comprising said at least one trigger mechanism, which is activated, when the wear occurring in the housing reaches a critical level, and further comprises a metal needle to break the radio frequency identification tag and a metal spring to operate the needle. - at least one housing, which is mounted on the wear plate and is worn simultaneously together with the wear plate, - at least one tag housing, which is affixed on the housing and ensures to attach at least a radio frequency identification tag thereon, - said at least one radio frequency identification tag, gives a signal to carry out the signal exchange with the tag reader and antenna system, - a wear plate, that ensures to prolong the lifespan of the equipment as it is mounted on the equipments those are exposed to physical and mechanical wear - at least a tag reader and antenna system, which receives a signal from the radio frequency identification (RFID) tag to perform the signal exchange, and characterized in that it further comprises - a wear sensing system comprising said at least one trigger mechanism, which is activated, when the wear occurring in the housing reaches a critical level, and further comprises a metal needle to break the radio frequency identification tag and a metal spring to operate the needle.
An automated control system for minimizing slugs in deepwater crude oil production with severe instabilities due to slug flows, the system comprising: - a production control choke valve PV-01 - a controller ZIC-01 for keeping the production control choke valve PV-01 at the desired position for operation; - an anti-slug pressure controller PIC-01 configured to control based on pressure upstream of the choke valve PV-01, wherein the controller ZIC-01 is configured to define the setpoint of the anti-slug pressure controller PIC-01; - a maximum pressure controller PIC-02 configured to control based on pressure downstream from choke valve, wherein the maximum pressure controller PIC-02 is configured to control the choke control valve PV-01 using a low signal selector; - a control switch HS for allowing the operator to choose a control variable and thereby select the signal for the anti-slug controller PIC-01, wherein the control switch HS is configured to allow selection of the control variable from any of the bottom-hole pressure PDG, the wet Christmas tree WCT pressure - TPT or a pressure from a sensor PT-01 upstream from the choke valve PV-01; - a sensor ZT-01 in a transport zone; and - a pressure sensor - PT-02 downstream from the production choke valve. - a production control choke valve PV-01 - a controller ZIC-01 for keeping the production control choke valve PV-01 at the desired position for operation; - an anti-slug pressure controller PIC-01 configured to control based on pressure upstream of the choke valve PV-01, wherein the controller ZIC-01 is configured to define the setpoint of the anti-slug pressure controller PIC-01; - a maximum pressure controller PIC-02 configured to control based on pressure downstream from choke valve, wherein the maximum pressure controller PIC-02 is configured to control the choke control valve PV-01 using a low signal selector; - a control switch HS for allowing the operator to choose a control variable and thereby select the signal for the anti-slug controller PIC-01, wherein the control switch HS is configured to allow selection of the control variable from any of the bottom-hole pressure PDG, the wet Christmas tree WCT pressure - TPT or a pressure from a sensor PT-01 upstream from the choke valve PV-01; - a sensor ZT-01 in a transport zone; and - a pressure sensor - PT-02 downstream from the production choke valve.
Removable void former assembly (31, 32, 34) for displacing a casting material to form a strip anchorage channel in a substantially planar rear face of a cast facing element during casting of the facing element, the facing element being for facing backfill stabilized by means of a flexible reinforcement strip passed through the channel such that the strip follows a substantially arcuate path between a first channel opening in the rear face, around a substantially cylindrical or cylindroidal core element, which is cast contiguously with the facing element casting, to a second channel opening in the rear face, wherein the removable channel void former assembly (31, 32, 34) comprises: a first void former, shaped for forming a first part of the channel, the first part extending between the first channel opening and an intermediate location in the channel, a second void former, shaped for forming a second part of the channel, the second part extending between the second channel opening and the intermediate location, support means (34, 35) for supporting the first and second void formers in position during casting of the facing element, and withdrawal displacement means (46, 47, 48) for rotationally displacing the first and/or second void formers about the core element in a rotational withdrawing direction from the channel of the cast facing element, the withdrawal displacement means (46, 47, 48) are configured for performing, in addition to the rotational displacement of the first and/or second void formers about the core element in a rotational withdrawing direction, a linear translational displacement of the first and/or second void formers along a linear withdrawal direction. a first void former, shaped for forming a first part of the channel, the first part extending between the first channel opening and an intermediate location in the channel, a second void former, shaped for forming a second part of the channel, the second part extending between the second channel opening and the intermediate location, support means (34, 35) for supporting the first and second void formers in position during casting of the facing element, and withdrawal displacement means (46, 47, 48) for rotationally displacing the first and/or second void formers about the core element in a rotational withdrawing direction from the channel of the cast facing element, the withdrawal displacement means (46, 47, 48) are configured for performing, in addition to the rotational displacement of the first and/or second void formers about the core element in a rotational withdrawing direction, a linear translational displacement of the first and/or second void formers along a linear withdrawal direction.
A computer-implemented method comprising: transmitting data over a first wireless connection by a computing device and with a first wireless access point; detecting (122; 654), by the computing device, a wireless signal from a second wireless access point; identifying (124; 656), at the computing device, a received signal strength of the wireless signal from the second wireless access point; determining (126; 660), by the computing device and with the computing device having transmitted less than a threshold number of data packets to the second wireless access point after detecting the wireless signal, an estimated level of data packet loss for the second wireless access point based on the signal strength for the second wireless access point and based on stored data that correlates received wireless signal strengths for the second wireless access point with levels of data packet loss for the second wireless access point; determining (128; 664), based on the estimated level of data packet loss for the second wireless access point, to switch to a second wireless connection with the second wireless access point; and establishing (132; 666) the second wireless connection as a result of the determining. transmitting data over a first wireless connection by a computing device and with a first wireless access point; detecting (122; 654), by the computing device, a wireless signal from a second wireless access point; identifying (124; 656), at the computing device, a received signal strength of the wireless signal from the second wireless access point; determining (126; 660), by the computing device and with the computing device having transmitted less than a threshold number of data packets to the second wireless access point after detecting the wireless signal, an estimated level of data packet loss for the second wireless access point based on the signal strength for the second wireless access point and based on stored data that correlates received wireless signal strengths for the second wireless access point with levels of data packet loss for the second wireless access point; determining (128; 664), based on the estimated level of data packet loss for the second wireless access point, to switch to a second wireless connection with the second wireless access point; and establishing (132; 666) the second wireless connection as a result of the determining.