mhurhangee/ep-ind-claims huggingface dataset:
An imaging apparatus for cone beam computed tomography imaging of an extremity of a patient, the apparatus comprising a scanner that has: (i) a detector for acquiring image data according to received radiation, wherein the detector is translatable to orbit the extremity along a detector path that lies at a first radius R1 about a P axis; (ii) a radiation source that is energizable to direct radiation through the extremity being imaged and toward the detector, wherein the radiation source is translatable to orbit the extremity along a radiation source path at a second radius R2 about the β axis and opposite the detector, (iii) a housing with an opening and having a door (160; 176) that is pivotable to enclose a portion of the opening to define a scan volume for patient extremity positioning, wherein sides of the scan volume are substantially symmetrical about the β axis; characterised by (iv) a first set of indicia formed along one or more curved surfaces of the housing and indicating at least a first position along the length of the P axis for extremity positioning; (v) a second set of indicia formed along one or more substantially flat surfaces of the cylindrical housing and indicating the location of the β axis. (i) a detector for acquiring image data according to received radiation, wherein the detector is translatable to orbit the extremity along a detector path that lies at a first radius R1 about a P axis; (ii) a radiation source that is energizable to direct radiation through the extremity being imaged and toward the detector, wherein the radiation source is translatable to orbit the extremity along a radiation source path at a second radius R2 about the β axis and opposite the detector, (iii) a housing with an opening and having a door (160; 176) that is pivotable to enclose a portion of the opening to define a scan volume for patient extremity positioning, wherein sides of the scan volume are substantially symmetrical about the β axis; (iv) a first set of indicia formed along one or more curved surfaces of the housing and indicating at least a first position along the length of the P axis for extremity positioning; (v) a second set of indicia formed along one or more substantially flat surfaces of the cylindrical housing and indicating the location of the β axis.
A method for producing a steel plate member using hot press forming, comprising: a quenching step for heating the steel plate member to a temperature higher than an austenite transformation finish temperature A3 and subsequently cooling the steel plate member at a cooling rate faster than an upper critical cooling rate; and a tempering step for reheating a second region of the steel plate member to a temperature higher than an austenite transformation start temperature A1 without reheating a first region of the steel plate member after quenching and subsequently cooling the steel plate member at a cooling rate slower than a lower critical cooling rate, wherein a hard region containing martensite is formed in the first region and a soft region containing ferrite and pearlite is formed in the second region, and in the cooling process of the tempering step, the shape of the second region is corrected in a temperature range from a temperature that is equal to or lower than the austenite transformation start temperature A1 to a temperature that is equal to or higher than a temperature at which transformation into ferrite and pearlite is finished while maintaining the cooling rate slower than the lower critical cooling rate. a quenching step for heating the steel plate member to a temperature higher than an austenite transformation finish temperature A3 and subsequently cooling the steel plate member at a cooling rate faster than an upper critical cooling rate; and a tempering step for reheating a second region of the steel plate member to a temperature higher than an austenite transformation start temperature A1 without reheating a first region of the steel plate member after quenching and subsequently cooling the steel plate member at a cooling rate slower than a lower critical cooling rate, wherein a hard region containing martensite is formed in the first region and a soft region containing ferrite and pearlite is formed in the second region, and in the cooling process of the tempering step, the shape of the second region is corrected in a temperature range from a temperature that is equal to or lower than the austenite transformation start temperature A1 to a temperature that is equal to or higher than a temperature at which transformation into ferrite and pearlite is finished while maintaining the cooling rate slower than the lower critical cooling rate.
Sliding-door fitting having a running rail which is formed from at least two rail parts (3a, 3b) and on which at least one track is formed for a running roller of a running part for moving a sliding door, a profile butt connector having a connection part, arranged between the rail parts (3a, 3b), which forms a track section for the running roller, characterized in that the profile butt connector has a support part which can be fixed to a top panel and supports the two rail parts (3a, 3b) at their ends facing one another and to which the connection part is fixed.
A method comprising: (a) obtaining a sheet as feedstock, wherein the sheet is a non-ferrous alloy, and wherein the feedstock has a first edge and a second edge; (b) heating the feedstock using a transverse flux induction heating system to form a heat treated product, wherein the transverse flux induction heating system comprises a plurality of transverse flux induction heaters; (c) concomitant with the heating step, cooling at least one of the first edge and the second edge of the feedstock by cross-flowing at least one fluid across the at least one of the first edge and the second edge of the feedstock, wherein the at least one fluid comprises water vapor, wherein the cross-flowing comprises flowing parallel to a plane of the sheet toward a sheet centerline, and wherein the at least one fluid is delivered from at least one nozzle positioned apart from a side surface of the sheet in a direction parallel to the plane, wherein the cooling step (c) is conducted after the feedstock is heated by more than half of the plurality of transverse flux induction heaters, and wherein the cooling step (c) produces a substantially higher heat transfer at the at least one of the first edge and the second edge compared to a center portion of the sheet. (a) obtaining a sheet as feedstock, wherein the sheet is a non-ferrous alloy, and wherein the feedstock has a first edge and a second edge; wherein the sheet is a non-ferrous alloy, and wherein the feedstock has a first edge and a second edge; (b) heating the feedstock using a transverse flux induction heating system to form a heat treated product, wherein the transverse flux induction heating system comprises a plurality of transverse flux induction heaters; (c) concomitant with the heating step, cooling at least one of the first edge and the second edge of the feedstock by cross-flowing at least one fluid across the at least one of the first edge and the second edge of the feedstock, wherein the at least one fluid comprises water vapor, wherein the cross-flowing comprises flowing parallel to a plane of the sheet toward a sheet centerline, and wherein the at least one fluid is delivered from at least one nozzle positioned apart from a side surface of the sheet in a direction parallel to the plane, wherein the cooling step (c) is conducted after the feedstock is heated by more than half of the plurality of transverse flux induction heaters, and wherein the cooling step (c) produces a substantially higher heat transfer at the at least one of the first edge and the second edge compared to a center portion of the sheet. wherein the cooling step (c) is conducted after the feedstock is heated by more than half of the plurality of transverse flux induction heaters, and wherein the cooling step (c) produces a substantially higher heat transfer at the at least one of the first edge and the second edge compared to a center portion of the sheet.
A method for determining a power control parameter, applied to a terminal and comprising: in a case that no target parameter has been configured in power control parameters of a target object, determining a target parameter of the target object in any one of the following manners: determining, based on a historical configuration, the target parameter of the target object; and determining, based on protocol specification, the target parameter of the target object; wherein the target object is selected from a physical uplink control channel, PUCCH, a physical uplink shared channel, PUSCH, and a sounding reference signal, SRS; and the target parameter comprises pathloss reference reference signal; the determining, based on a historical configuration and/or protocol specification, the target parameter of the target object comprises: determining a first RS from historical downlink reference signals, RSs, as the pathloss reference reference signal; wherein the first RS is a downlink RS in quasi co-location, QCL, information associated with the target object. determining, based on a historical configuration, the target parameter of the target object; and determining, based on protocol specification, the target parameter of the target object; wherein the target object is selected from a physical uplink control channel, PUCCH, a physical uplink shared channel, PUSCH, and a sounding reference signal, SRS; and the target parameter comprises pathloss reference reference signal; the determining, based on a historical configuration and/or protocol specification, the target parameter of the target object comprises: determining a first RS from historical downlink reference signals, RSs, as the pathloss reference reference signal; wherein the first RS is a downlink RS in quasi co-location, QCL, information associated with the target object. determining a first RS from historical downlink reference signals, RSs, as the pathloss reference reference signal; wherein the first RS is a downlink RS in quasi co-location, QCL, information associated with the target object.
Assembly comprising a guide element secured to at least one cable sheath and a support mount for coupling said guide element in the support mount, characterised in that the guide element has two opposed hooks and in alignment, one of which is intended to be positioned angularly so as to bear and butt in a recess formed in the support mount, while the other hook is designed to bear on an elastic member belonging to said mount so as to trigger the pivoting movement of a tilting latch which engages with said other hook, under a tilting effect of said guide element that corresponds to a position of coupling with the support mount.
A lighting device comprising a solid state light source and a ceramic body, wherein the solid state light source is configured to provide blue light source light to the ceramic body, wherein the ceramic body comprises a ceramic material configured to wavelength convert part of the blue light source light into yellow converter light, to provide white lighting device light comprising said blue light source light and said yellow converter light, said white lighting device light having a color point selected from the range of 0.18≤u'≤0.25 and 0.42≤v'≤0.54, and wherein the ceramic material comprises a (Y (1-y-q-z),Gd y,Lu q,Ce z) 3 (Al (1-x),Ga x) 5 O 12 ceramic material, with 0≤x≤0.6, 0≤y≤0.5, 0≤q<1, and 0.001≤z≤0.06, characterised in that the ceramic body is obtainable by a process comprising a sintering stage comprising sintering a mixture of starting materials, optionally including SiO 2, at a temperature in the range of 1500-2000 °C in a first atmosphere to provide a sintered body, followed by an annealing stage comprising an annealing at a temperature in the range of 1000-1600 °C in a second atmosphere to provide said ceramic body, wherein the first atmosphere differs from the second atmosphere, and wherein the first atmosphere comprises a neutral or an oxidizing atmosphere and the second atmosphere comprises a reducing atmosphere.
Lighting device for illuminating a space located in a building and comprising - a light guide for conducting natural light from a location outside the building into the room, - a light-generating element for generating an artificial light, - a light output surface area, wherein the lighting device is so designed that both the natural light and the artificial light may be emitted at least partially via the light output surface area, wherein the light output surface area is a surface area of a light guide plate, wherein the design is such that the natural light is coupled to a plurality of first locations in the light guide plate, and wherein the artificial light is coupled to the light guide plate at a plurality of second locations, characterized in that the light-coupling regions for coupling natural light in the first locations are designed differently from further light-coupling regions for coupling artificial light to the second locations. - a light guide for conducting natural light from a location outside the building into the room, - a light-generating element for generating an artificial light, - a light output surface area, wherein the lighting device is so designed that both the natural light and the artificial light may be emitted at least partially via the light output surface area,
Method for operating an electrically adjustable roll stabilizer for a chassis of a motor vehicle, comprising an actuator which is arranged between two subsections (9, 10) of the roll stabilizer and can adjust the subsections in relation to one another, wherein at least one sensor for detecting the angle of twist and/or the torque is provided, wherein signals relating to the angle of twist and/or torque are processed by at least one controller for controlling the actuator, characterized in that, during the operation of the roll stabilizer which is secured in accordance with ASIL, the signals are compared with maximum and minimum characteristic values within the at least one controller, wherein the maximum adjustment path and/or the maximum torque output of the actuator are/is determined depending on vehicle characteristic values, preferably on vehicle speed and/or steering angle and/or lateral acceleration, in order to break up the detection of unintended torque output into a high-order and a lower safety target.
Method of operating an internal combustion engine comprising a controllable injector for injecting fuel into a combustion chamber, wherein the injector communicates with a fuel accumulator through which it is supplied with fuel, the method comprising the following steps: - determining a first pressure value of the pressure in the fuel accumulator on the basis of a first pressure measurement, - determining a second pressure value of the pressure in the fuel accumulator on the basis of a second pressure measurement carried out after the first pressure measurement, - determining an injector opening duration depending on the first and the second pressure value, and - controlling the injector based upon the previously determined injector opening duration, characterized in that the determination of the first and of the second pressure value is effected by different evaluation methods, wherein a second evaluation method used to determine the second pressure value operates faster than a first evaluation method used to determine the first pressure value. - determining a first pressure value of the pressure in the fuel accumulator on the basis of a first pressure measurement, - determining a second pressure value of the pressure in the fuel accumulator on the basis of a second pressure measurement carried out after the first pressure measurement, - determining an injector opening duration depending on the first and the second pressure value, and - controlling the injector based upon the previously determined injector opening duration,
A computer-implemented method to identify object types with memory allocations which cause undesired garbage collection in a distributed computing environment, comprising: - receiving, by an agent, object allocation notifications from a garbage collecting memory management system, where the object allocation notifications identify object allocations and the agent is instrumented into a process being monitored on a host computing device; - receiving, by the agent, object collection notifications from the memory management system, where the object collection notifications identify object deallocations; characterised by - for each allocated object during a specified period of time, determining, by the agent, a number of garbage collection events that occurred between allocation and deallocation of a given object; - from the objects allocated during the specified period of time, determining object types with the highest survived garbage collection size, where the survived garbage collection size for a given object is proportional to the product of the number of garbage collection events that occurred between allocation and deallocation of the given object and the memory size allocated to the given object; and - presenting the object types with the highest survived garbage collection size to an operator so that the operator is enabled to quickly identify the root cause of undesired behavior. - receiving, by an agent, object allocation notifications from a garbage collecting memory management system, where the object allocation notifications identify object allocations and the agent is instrumented into a process being monitored on a host computing device; - receiving, by the agent, object collection notifications from the memory management system, where the object collection notifications identify object deallocations; characterised by - for each allocated object during a specified period of time, determining, by the agent, a number of garbage collection events that occurred between allocation and deallocation of a given object; - from the objects allocated during the specified period of time, determining object types with the highest survived garbage collection size, where the survived garbage collection size for a given object is proportional to the product of the number of garbage collection events that occurred between allocation and deallocation of the given object and the memory size allocated to the given object; and - presenting the object types with the highest survived garbage collection size to an operator so that the operator is enabled to quickly identify the root cause of undesired behavior.
Equipment for carrying a very young child in a vehicle, comprising a base intended to be secured to a seat of said vehicle and a bassinet (2, 3) for accommodating said child in a lying-down position in the longitudinal direction of the bassinet (2, 3), and able to be secured to said base, said bassinet (2, 3) and said base comprising guidance elements of complementary shapes for achieving translational guidance between said bassinet (2, 3) and said base, in a direction substantially parallel to the longitudinal direction of the bassinet (2, 3), said equipment comprising means for locking and unlocking said bassinet (2, 3) with respect to said base, in at least one position of use, characterised in that said locking and unlocking means comprise at least one hook (151, 152, 153, 154) able to move between an unlocked position and a locked position, mounted on said base, and at least one rod (33, 34) mounted on said bassinet (2, 3) parallel to the longitudinal direction of said bassinet (2, 3), cooperating with said hook or hooks (151, 152, 153, 154).
Clamping element (5a, 5b) for installing a channel body arrangement with a drainage channel and tile profile segments (41, 42, 43, 44), wherein - the drainage channel has a first side wall, a second side wall, a first end wall, a second end wall and a base, wherein - the tile profile segments (41, 42, 43, 44) are configured as elongate profiles which are L-shaped in cross section, comprising a first leg and a second leg, wherein the clamping element comprises: - a first clamping arrangement, a second clamping arrangement and a third clamping arrangement, which are designed for releasable connection to the tile profile segments, and - at least one bearing device (54, 55, 56, 57) which is designed for bearing against the drainage channel, wherein - the first, second and third clamping arrangement in each case comprises two clamping arms, wherein - the clamping arms are designed to be able to partially engage around the respective second leg of one of the tile profile segments, wherein - the bearing devices (54, 55, 56, 57) are designed to bear against the respectively associated side surfaces (11, 12) or the respective end surface (13, 14) of the drainage channel. - the drainage channel has a first side wall, a second side wall, a first end wall, a second end wall and a base, wherein - the tile profile segments (41, 42, 43, 44) are configured as elongate profiles which are L-shaped in cross section, comprising a first leg and a second leg, wherein - a first clamping arrangement, a second clamping arrangement and a third clamping arrangement, which are designed for releasable connection to the tile profile segments, and - at least one bearing device (54, 55, 56, 57) which is designed for bearing against the drainage channel, wherein - the first, second and third clamping arrangement in each case comprises two clamping arms, wherein - the clamping arms are designed to be able to partially engage around the respective second leg of one of the tile profile segments, wherein - the bearing devices (54, 55, 56, 57) are designed to bear against the respectively associated side surfaces (11, 12) or the respective end surface (13, 14) of the drainage channel.
A public transport vehicle, in particular a railway vehicle, comprising a structural body, the structural body comprising an equipment housing and a housing for the equipment housing, the equipment housing being movable in a pull-out direction between a retracted position in the housing, and a deployed position in which at least 50% of the length of the equipment housing in the pull-out direction is outside the housing, in which: - the housing has at least one lower guide surface extending in the pull-out direction, and the equipment housing has at least one guide member resting on the lower guide surface, and - the housing has at least one upper stop surface, the equipment housing having stop means disposed below the upper stop surface in a vertical direction, the stop means being capable of cooperating at least in part with the upper stop surface, at least when the equipment housing is in the deployed position, characterised in that the housing extends in the pull-out direction between a first and a second end, the housing being accessible at both ends in the pull-out direction, the equipment housing being movable, in a first direction, between the retracted position and a first position extended beyond the first end, and in a second direction, between the retracted position and a second position extended beyond the second end. - the housing has at least one lower guide surface extending in the pull-out direction, and the equipment housing has at least one guide member resting on the lower guide surface, and - the housing has at least one upper stop surface, the equipment housing having stop means disposed below the upper stop surface in a vertical direction, the stop means being capable of cooperating at least in part with the upper stop surface, at least when the equipment housing is in the deployed position, characterised in that the housing extends in the pull-out direction between a first and a second end, the housing being accessible at both ends in the pull-out direction, the equipment housing being movable, in a first direction, between the retracted position and a first position extended beyond the first end, and in a second direction, between the retracted position and a second position extended beyond the second end.