mhurhangee/ep-ind-claims huggingface dataset:
Furnishing component in combination with a recreational vehicle comprising: - a fixed portion associated with a recreational vehicle and defining a space of use, the fixed portion being a shelf overhanging from the wall of a recreational vehicle and being surrounded by walls defining the space of use; and - a movable portion associated with said fixed portion in a variable manner between an opening position in which said movable portion is at least partially moved away from said fixed portion to allow the access to said space of use, and a closing position in which said movable portion is moved close to said fixed portion to prevent the access to said space of use; wherein it comprises: - at least one emitter element of a luminous flux associated with said fixed portion; and - at least one diffusing element associated with said movable portion and at least partially exposed to said luminous flux for its diffusion in the environment; characterized by the fact that: - said fixed portion comprises at least one stop end and that said movable portion comprises at least one approaching portion that in said closing position is approached to said stop end; and - said emitter element is arranged at said stop end and externally to said space of use in order to radiate said luminous flux in a space external to said space of use; - said movable portion comprises a housing seat for housing said diffusing element; - said seat is formed at said approaching portion. - a fixed portion associated with a recreational vehicle and defining a space of use, the fixed portion being a shelf overhanging from the wall of a recreational vehicle and being surrounded by walls defining the space of use; and - a movable portion associated with said fixed portion in a variable manner between an opening position in which said movable portion is at least partially moved away from said fixed portion to allow the access to said space of use, and a closing position in which said movable portion is moved close to said fixed portion to prevent the access to said space of use; - at least one emitter element of a luminous flux associated with said fixed portion; and - at least one diffusing element associated with said movable portion and at least partially exposed to said luminous flux for its diffusion in the environment; - said fixed portion comprises at least one stop end and that said movable portion comprises at least one approaching portion that in said closing position is approached to said stop end; and - said emitter element is arranged at said stop end and externally to said space of use in order to radiate said luminous flux in a space external to said space of use; - said movable portion comprises a housing seat for housing said diffusing element; - said seat is formed at said approaching portion.
A fuel injection pump comprising: a plunger; a plunger barrel configured to support the plunger; a body configured to house the plunger and the plunger barrel; a plate configured to cover an opening formed on the body; a control lever turnably attached near the plate; and a set bolt and an adjuster bolt configured to abut against the control lever to restrict turn of the control lever, wherein the adjuster bolt being supported by a stay disposed on the plate, wherein the set bolt abuts against the control lever to restrict the turn of the control lever, and the set bolt defines a lower limit value (Na, Wa) of a fuel pressure-feed amount with which the diesel engine can drive without a stall, and the adjuster bolt changes a lower limit value (Nb, Wb) of the fuel pressure-feed amount, and the turn of the control lever is restricted to a position of higher rotational speed (Nb) rather than a restriction position of the set bolt. a plunger; a plunger barrel configured to support the plunger; a body configured to house the plunger and the plunger barrel; a plate configured to cover an opening formed on the body; a control lever turnably attached near the plate; and a set bolt and an adjuster bolt configured to abut against the control lever to restrict turn of the control lever, wherein the adjuster bolt being supported by a stay disposed on the plate, wherein the set bolt abuts against the control lever to restrict the turn of the control lever, and the set bolt defines a lower limit value (Na, Wa) of a fuel pressure-feed amount with which the diesel engine can drive without a stall, and the adjuster bolt changes a lower limit value (Nb, Wb) of the fuel pressure-feed amount, and the turn of the control lever is restricted to a position of higher rotational speed (Nb) rather than a restriction position of the set bolt.
An apparatus comprising: at least one processor configured to cause a network function to: receive small data, from a Services Capability Server; and determine reachability of a User Equipment from a message exchange with a mobility management entity, wherein the exchange includes receiving a message indicating the UE is unreachable; in response to determining the UE is unreachable, buffer the small data for the UE; and start a counter, and when the counter reaches a maximum amount, send the small data. receive small data, from a Services Capability Server; and determine reachability of a User Equipment from a message exchange with a mobility management entity, wherein the exchange includes receiving a message indicating the UE is unreachable; in response to determining the UE is unreachable, buffer the small data for the UE; and start a counter, and when the counter reaches a maximum amount, send the small data.
Support box supporting functional elements within the frame of an electrical connection enclosure, this box comprising: - at least one pair of rails for guiding a monitoring-control plug-in unit forming a functional element in translation; - a parallelepipedal framework comprising: ∘ two horizontal plates in a mounted configuration of the box in the frame; ∘ a back that is perpendicular to the horizontal plates and vertical in the mounted configuration of the box in the frame; and ∘ two walls (68A, 68B) that are vertical in the mounted configuration of the box in the frame and that each support a rail of each pair of rails, - members (80, 102) for fastening the framework to the frame, characterized in that - the members for fastening the framework to the frame of the electrical enclosure comprise fastening lugs that are elastically deformable and integral with the horizontal plates. - the members for fastening the framework to the frame of the electrical enclosure comprise elastically deformable load absorbing lugs, that are integral with the vertical walls (68A, 68B). - the support box further comprises at least one centring pin, configured to vertically centre the box with respect to a post of the frame of the enclosure, each centring pin being arranged in a positioning hole of a fastening lug. - at least one pair of rails for guiding a monitoring-control plug-in unit forming a functional element in translation; - a parallelepipedal framework comprising: ∘ two horizontal plates in a mounted configuration of the box in the frame; ∘ a back that is perpendicular to the horizontal plates and vertical in the mounted configuration of the box in the frame; and ∘ two walls (68A, 68B) that are vertical in the mounted configuration of the box in the frame and that each support a rail of each pair of rails, ∘ two horizontal plates in a mounted configuration of the box in the frame; ∘ a back that is perpendicular to the horizontal plates and vertical in the mounted configuration of the box in the frame; and ∘ two walls (68A, 68B) that are vertical in the mounted configuration of the box in the frame and that each support a rail of each pair of rails, - members (80, 102) for fastening the framework to the frame, characterized in that - the members for fastening the framework to the frame of the electrical enclosure comprise fastening lugs that are elastically deformable and integral with the horizontal plates. - the members for fastening the framework to the frame of the electrical enclosure comprise elastically deformable load absorbing lugs, that are integral with the vertical walls (68A, 68B). - the support box further comprises at least one centring pin, configured to vertically centre the box with respect to a post of the frame of the enclosure, each centring pin being arranged in a positioning hole of a fastening lug.
A device for dispensing individual doses of powder from respective pockets of a pair of carriers, the device including: first and second disc shaped carriers; a first support for the first disc shaped carrier and a second support for the second disc shaped carrier, said first and second disc shaped carrier each having at least one substantially planar first side surface having an annular array of cavities in which respective pockets are formed, wherein the supports are for rotatably supporting the carriers about a substantially common axis; a mouthpiece through which to inhale an airstream carrying powder from the carriers; a dispensing mechanism for releasing into the airstream the powder of a respective pocket of a supported carrier; and an indexing mechanism for rotating the carriers relative to the dispensing mechanism so as to enable powder to be released from different pockets; characterized in that the first and second disc shaped carrier each have a respective first lidding sheet sealed to the first side surface for enclosing the cavities, and in that the dispensing mechanism comprises an arrangement for axially moving, individually, each pocket from a respective storage position to a respective discharge position; wherein in said discharge position, said pocket extends outwardly of said cavity. first and second disc shaped carriers; a first support for the first disc shaped carrier and a second support for the second disc shaped carrier, said first and second disc shaped carrier each having at least one substantially planar first side surface having an annular array of cavities in which respective pockets are formed, wherein the supports are for rotatably supporting the carriers about a substantially common axis; a mouthpiece through which to inhale an airstream carrying powder from the carriers; a dispensing mechanism for releasing into the airstream the powder of a respective pocket of a supported carrier; and an indexing mechanism for rotating the carriers relative to the dispensing mechanism so as to enable powder to be released from different pockets; characterized in that the first and second disc shaped carrier each have a respective first lidding sheet sealed to the first side surface for enclosing the cavities, and in that the dispensing mechanism comprises an arrangement for axially moving, individually, each pocket from a respective storage position to a respective discharge position; wherein in said discharge position, said pocket extends outwardly of said cavity.
Method for providing unequal error protection to data packets in a burst transmission system, wherein each burst comprises a data section and an error protection section and wherein the data section of each burst comprises one or more data packets and the error protection section of each burst comprises error protection codes, wherein the data packets are grouped based upon respective priority levels, and wherein said error protection section comprises error protection codes for protecting intra burst loss, the method comprising the step of providing extra burst error protection to each group of data packets based upon the respective priority level, whereas the extra burst error protection is provided by extra burst error protection codes comprised in the error protection section, and the method further comprising the steps of creating said extra burst error protection codes for each group of data packets using data of data packets of said group which are contained in the data section of two or more bursts forming a first set of bursts (50, 50.B, 50.E, 55), and transmitting said created extra burst error protection codes in the error protection section of one or more bursts forming a second set of bursts (60, 60.B, 60.E, 65), wherein the first set of bursts has a non-empty intersection with the second set of bursts and wherein the second set of bursts (60, 60.B, 65) used for transmitting the extra burst error protection codes for a group of data packets of a higher priority contains a higher number of bursts than the second set of bursts (60, 60.E, 65) used for transmitting the extra burst error protection codes for a group of data packets of a lower priority.
A laser beam shaping device intended in particular to be included in an atomic sensor such as an atomic clock, an atomic magnetometer or an atomic gyrometer by being combined on the one hand with a laser beam emission laser and on the other hand with an alkaline vapour cell comprising a cavity filled with a gas and into which a shaped laser beam can enter and with a photodetector for receiving a laser beam having entered the cell, wherein the shaping device comprises a retroreflector prism having an entrance area for an entering laser beam, an exit area for an exiting laser beam as well as two internal laser beam reflection surfaces (14, 15), said reflection surfaces forming a right angle with one another, a form birefringence plate disposed downstream from the exit area of the retroreflector prism so as to be traversed by an exiting laser beam exiting the retroreflector prism through the exit area and able to impose a circular polarisation to said exiting laser beam to obtain a shaped laser beam, the shaping device being characterised in that it further comprises a linear polariser disposed upstream from the entrance area of the retroreflector prism so as to be traversed by an entering laser beam entering the retroreflector prism through the entrance area and able to impose a linear polarisation to said entering laser beam. wherein the shaping device comprises a retroreflector prism having an entrance area for an entering laser beam, an exit area for an exiting laser beam as well as two internal laser beam reflection surfaces (14, 15), said reflection surfaces forming a right angle with one another, a form birefringence plate disposed downstream from the exit area of the retroreflector prism so as to be traversed by an exiting laser beam exiting the retroreflector prism through the exit area and able to impose a circular polarisation to said exiting laser beam to obtain a shaped laser beam, the shaping device being characterised in that it further comprises a linear polariser disposed upstream from the entrance area of the retroreflector prism so as to be traversed by an entering laser beam entering the retroreflector prism through the entrance area and able to impose a linear polarisation to said entering laser beam.
A method for perceiving physical bodies having the following steps, implemented by a data processing module (MTD1, MTD2): a) acquisition of a plurality of distance measurements (z 1... z NC) of said physical bodies arising from one or more sensors (C 1... C NC); b) acquisition from a device outside of the data processing module, or computation on the basis of at least one signal received from outside the data processing module, of at least one value of a priori probability of occupancy of the cells of an occupancy grid; c) application, to each said distance measurement, of an inverse model of the corresponding sensor on said occupancy grid providing a discretized spatial representation of an environment of said sensor, so as to determine a probability of occupancy by a physical body of a set of cells of said occupancy grid, each said inverse sensor model being a discrete model, associating with each cell of the corresponding occupancy grid, and for each distance measurement, a probability class chosen inside one and the same set of finite cardinality, each said probability class being identified by an integer index; and d) construction of a consolidated occupancy grid each cell of which exhibits an occupancy probability computed by fusing the occupancy probabilities estimated during step c), the probability of occupancy of each cell of the consolidated occupancy grid being determined by means of integer computations performed on the indices of the probability classes determined during said step c), and as a function of said or of a said a priori occupancy probability. a) acquisition of a plurality of distance measurements (z 1... z NC) of said physical bodies arising from one or more sensors (C 1... C NC); b) acquisition from a device outside of the data processing module, or computation on the basis of at least one signal received from outside the data processing module, of at least one value of a priori probability of occupancy of the cells of an occupancy grid; c) application, to each said distance measurement, of an inverse model of the corresponding sensor on said occupancy grid providing a discretized spatial representation of an environment of said sensor, so as to determine a probability of occupancy by a physical body of a set of cells of said occupancy grid, each said inverse sensor model being a discrete model, associating with each cell of the corresponding occupancy grid, and for each distance measurement, a probability class chosen inside one and the same set of finite cardinality, each said probability class being identified by an integer index; and d) construction of a consolidated occupancy grid each cell of which exhibits an occupancy probability computed by fusing the occupancy probabilities estimated during step c), the probability of occupancy of each cell of the consolidated occupancy grid being determined by means of integer computations performed on the indices of the probability classes determined during said step c), and as a function of said or of a said a priori occupancy probability.
A gas turbine engine compressor, comprising: a first compressor section, the first compressor section including: at least one rotating stage that includes rotating blades and at least one stationary stage upstream thereof that includes stationary guide vanes, which controllably pivot about respective pivot axes for providing flow control into the rotating stage, wherein the stationary guide vanes are configured to pivot from a first position to a second position to influence flow through the first compressor section; wherein the gas turbine engine compressor is configured such that the positioning of the vanes is controlled as a function of corrected low pressure compressor speed, characterized in that the first position corresponds to a first compressor throat area, the second position corresponds to a second compressor throat area that is between 62 percent and 65 percent of the first throat area, the first position corresponds to a maximum open position of the stationary guide vanes and the second position to a maximum closed position of the stationary guide vanes. at least one rotating stage that includes rotating blades and at least one stationary stage upstream thereof that includes stationary guide vanes, which controllably pivot about respective pivot axes for providing flow control into the rotating stage, wherein the stationary guide vanes are configured to pivot from a first position to a second position to influence flow through the first compressor section; wherein the gas turbine engine compressor is configured such that the positioning of the vanes is controlled as a function of corrected low pressure compressor speed, characterized in that the first position corresponds to a first compressor throat area, the second position corresponds to a second compressor throat area that is between 62 percent and 65 percent of the first throat area, the first position corresponds to a maximum open position of the stationary guide vanes and the second position to a maximum closed position of the stationary guide vanes.
A foldable electronic device comprising: a window having a modulus of 55GPa to 85GPa, wherein the window has a thickness greater than 0 μm and smaller than or equal to 80 μm; a panel comprising an electronic element; a first additional member between the panel and the window; a second additional member between the first additional member and the window, wherein each of the first additional member and the second additional member comprises one of an optical member or an input sensing film configured to sense an externally provided touch; and a plurality of adhesive layers (AM1, AM2, AM3) between the window and the panel, wherein the adhesive layers (AM1, AM2, AM3) comprise: a first adhesive layer disposed on the panel; a second adhesive layer disposed on the window; and a third adhesive layer between the first additional member and the second additional member, and wherein a thickness of the first adhesive layer is equal to or less than 1/2 of the sum of the thicknesses of the adhesive layers (AM1, AM2, AM3), characterized in that a sum of thicknesses of the adhesive layers (AM1, AM2, AM3) is less than 200μm and is equal to or greater than 75μm. a window having a modulus of 55GPa to 85GPa, wherein the window has a thickness greater than 0 μm and smaller than or equal to 80 μm; a panel comprising an electronic element; a first additional member between the panel and the window; a second additional member between the first additional member and the window, wherein each of the first additional member and the second additional member comprises one of an optical member or an input sensing film configured to sense an externally provided touch; and a plurality of adhesive layers (AM1, AM2, AM3) between the window and the panel, wherein the adhesive layers (AM1, AM2, AM3) comprise: a first adhesive layer disposed on the panel; a second adhesive layer disposed on the window; and a third adhesive layer between the first additional member and the second additional member, and a first adhesive layer disposed on the panel; a second adhesive layer disposed on the window; and a third adhesive layer between the first additional member and the second additional member, and wherein a thickness of the first adhesive layer is equal to or less than 1/2 of the sum of the thicknesses of the adhesive layers (AM1, AM2, AM3), characterized in that a sum of thicknesses of the adhesive layers (AM1, AM2, AM3) is less than 200μm and is equal to or greater than 75μm.
A tube sorter comprising: a transporting means (110, 160) for transporting sample racks along a transport path; a storing means for storing a plurality of sample tubes, arranged at a higher level than the transporting means (110, 160); a lifting means for lifting up a sample rack transported by the transporting means (110, 160) from a first position in the transport path to a second position above the transport path; and a transferring means for transferring a sample tube; characterized in that: the transferring means is configured to remove a sample tube from the sample rack lifted up by the lifting means without moving the sample rack from the second position and set the removed sample tube in the storing means without moving the sample rack from the second position and the transporting means is arranged to move the next sample rack along the transport path during the transfer of the sample tube. a transporting means (110, 160) for transporting sample racks along a transport path; a storing means for storing a plurality of sample tubes, arranged at a higher level than the transporting means (110, 160); a lifting means for lifting up a sample rack transported by the transporting means (110, 160) from a first position in the transport path to a second position above the transport path; and a transferring means for transferring a sample tube; characterized in that: the transferring means is configured to remove a sample tube from the sample rack lifted up by the lifting means without moving the sample rack from the second position and set the removed sample tube in the storing means without moving the sample rack from the second position and the transporting means is arranged to move the next sample rack along the transport path during the transfer of the sample tube.