mhurhangee/ep-ind-claims huggingface dataset:
A coin box for a coin-operated device, wherein the coin box comprises a housing with a front-side removal opening, the removal opening is assigned a sliding door and a supporting floor for the coins is arranged in the interior of the housing, wherein the supporting floor is inclined from a rear wall of the housing in the direction of the removal opening, wherein the sliding door is mounted in the region of opposite side walls of the housing and an upper and lower end position of the sliding door is delimited by respective stops, characterized in that, in order to guide the sliding door, a bent portion extending parallel to and spaced apart from the associated side wall is formed on both sides, wherein the sliding door has, on both sides, a multiple bent flange, wherein the flange engages around the bent portion and extends into a clearance present between the bent portion and the side wall.
A method for filling a refrigerant mixture comprising difluoromethane (HFC-32) and trans-1,3,3,3-tetrafluoropropene (HFO-1234ze), HFC-32 being present in a liquid phase of the refrigerant mixture in an amount of 10-90 wt% based on 100 wt% of the total of HFC-32 and HFO-1234ze, the method comprising, in transferring the refrigerant mixture in a liquid state to a target container or equipment from a feeding container, adjusting, immediately before the transfer, the proportion (initial composition) of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container to (x+y 1) wt-% (minimum value) to x wt-% (target upper-limit composition), so that the proportion of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container falls within a range of (x-4.0) wt% (target lower-limit composition) to x wt-% (target upper-limit composition) during initiation and completion of the transfer, wherein a is an amount (wt%) initially filled in the feeding container, wherein 60 ≤ a ≤ 100; x is a target upper-limit composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > 0; and y 1 is a lower limit of a gap between the target upper-limit composition and the initial composition and is represented by Equation: 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0001 a + 0.0032 M 1 = 0.0160 a + 1.3002 N 1 = 0.9472 a + 108.76, and P 1 = 1.9549 a + 4340. the method comprising, in transferring the refrigerant mixture in a liquid state to a target container or equipment from a feeding container, adjusting, immediately before the transfer, the proportion (initial composition) of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container to (x+y 1) wt-% (minimum value) to x wt-% (target upper-limit composition), so that the proportion of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container falls within a range of (x-4.0) wt% (target lower-limit composition) to x wt-% (target upper-limit composition) during initiation and completion of the transfer, wherein a is an amount (wt%) initially filled in the feeding container, wherein 60 ≤ a ≤ 100; x is a target upper-limit composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > 0; and y 1 is a lower limit of a gap between the target upper-limit composition and the initial composition and is represented by Equation: 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0001 a + 0.0032 M 1 = 0.0160 a + 1.3002 N 1 = 0.9472 a + 108.76, and P 1 = 1.9549 a + 4340. a is an amount (wt%) initially filled in the feeding container, wherein 60 ≤ a ≤ 100; x is a target upper-limit composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > 0; and y 1 is a lower limit of a gap between the target upper-limit composition and the initial composition and is represented by Equation: 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0001 a + 0.0032 M 1 = 0.0160 a + 1.3002 N 1 = 0.9472 a + 108.76, and P 1 = 1.9549 a + 4340.
A galley cart comprising: walls defining an interior cavity extending between a front and a rear of the galley cart, the interior cavity extending between a top end and a bottom end; a supply port in flow communication with the interior cavity at or near either the top end or the bottom end of the cart; a return port in flow communication with the interior cavity at or near the top end or the bottom end of the cart; and a barrier positioned between the supply port and the return port within the interior cavity of the cart defining a supply chamber and a return chamber to control airflow through the interior cavity from the supply chamber to the return chamber; wherein the barrier forces airflow through the entire interior cavity between the supply port and the return port; and wherein the barrier defines only one passage between the supply chamber and the return chamber. walls defining an interior cavity extending between a front and a rear of the galley cart, the interior cavity extending between a top end and a bottom end; a supply port in flow communication with the interior cavity at or near either the top end or the bottom end of the cart; a return port in flow communication with the interior cavity at or near the top end or the bottom end of the cart; and a barrier positioned between the supply port and the return port within the interior cavity of the cart defining a supply chamber and a return chamber to control airflow through the interior cavity from the supply chamber to the return chamber; wherein the barrier forces airflow through the entire interior cavity between the supply port and the return port; and wherein the barrier defines only one passage between the supply chamber and the return chamber.
An information processing apparatus comprising: a shape information acquiring means configured to acquire shape information of a surrounding environment of a moving apparatus measured by a sensor mounted in the moving apparatus; a position and posture acquiring means configured to acquire position and posture information of the sensor; a correction state acquiring means configured to acquire a performance state relating to a process of correcting the position and posture information; characterized by a priority level determining means configured to determine a priority level of a partial area for generating a map; and a map generating means configured to generate the map on the basis of the shape information and the position and posture information acquired at the time of acquisition of the shape information, wherein the map generating means generates the map in order from a partial area of which the priority level is high in accordance with the performance state. a shape information acquiring means configured to acquire shape information of a surrounding environment of a moving apparatus measured by a sensor mounted in the moving apparatus; a position and posture acquiring means configured to acquire position and posture information of the sensor; a correction state acquiring means configured to acquire a performance state relating to a process of correcting the position and posture information; characterized by a priority level determining means configured to determine a priority level of a partial area for generating a map; and a map generating means configured to generate the map on the basis of the shape information and the position and posture information acquired at the time of acquisition of the shape information, wherein the map generating means generates the map in order from a partial area of which the priority level is high in accordance with the performance state.
A gear inspection machine having a probe in form of a laser sensor with ar associated field of view,, said machine comprising positioning machine axes capable ol three dimensional positioning of the probe and a workpiece spindle with a workpiece axis of rotation whereby a workpiece is movable relative to and through said field of view, said machine further comprising: a calibration artifact mounted in a known location by being positioned on saic machine in a same manner as a workpiece positioned on said workpiece spindle of said machine, said calibration artifact being movable relative to and through the field of view via rotation of the calibration artifact about the machine workpiece axis of rotatior, said calibration artifact comprising: said calibration artifact being circular in shape and rotatable about said axis of rotation of said machine, said calibration artifact comprising a top side and an outer circumferential face portion on the top side with the outer circumferential face portion being located radially outward from the artifact axis of rotation and adjacent to a periphery of the artifact, said calibration artifact comprising a plurality of at least three shaped calibration surfaces, said at least three calibration surfaces being arranged on at least one surface on the top side of the calibration artifact and arranged on said outer circumferential face portion, said calibration surfaces being arranged at different locations on said at least one top surface with respect to the field of view of said laser sensor, and wherein one calibration surface is located at a radial distance from said axis of rotation and/or at an axial position with respect to said axis of rotation that is different than the radial distance or axial position of at least two of the remaining calibration surfaces and wherein the machine is configured to perform calibration without the use of said positioning machine axes. said calibration artifact being circular in shape and rotatable about said axis of rotation of said machine, said calibration artifact comprising a top side and an outer circumferential face portion on the top side with the outer circumferential face portion being located radially outward from the artifact axis of rotation and adjacent to a periphery of the artifact, said calibration artifact comprising a plurality of at least three shaped calibration surfaces, said at least three calibration surfaces being arranged on at least one surface on the top side of the calibration artifact and arranged on said outer circumferential face portion, said calibration surfaces being arranged at different locations on said at least one top surface with respect to the field of view of said laser sensor, and wherein one calibration surface is located at a radial distance from said axis of rotation and/or at an axial position with respect to said axis of rotation that is different than the radial distance or axial position of at least two of the remaining calibration surfaces and wherein the machine is configured to perform calibration without the use of said positioning machine axes.
An active illumination imaging system (100, 200) comprising: an active light source for illuminating a scene imaged by the imaging system; and first and second 3D cameras that provide distances to features in a scene that they image based on the active light illumination, each of the first and second cameras comprising an optical system having an optical axis and a photosensor having pixels on which the camera images light, and a field of view, FOV, (30, 130) characterized by a view angle, θ, in a plane that contains the optical axis; wherein the optical axes of the first and a second cameras intersect at an intersection region common to their FOVs (30, 130) at an angle equal to half a sum of their view angles to provide the imaging system (100, 200) with an enlarged FOV (30, 130) having an enlarged view angle, Θ, in a plane defined by the intersecting optical axes that is equal to a sum of the view angles of the cameras; and wherein the system's light acquisition sensitivity, as defined by a product of a vignetting factor of the imaging system (100, 200) times a square of a quotient equal to a diameter of pixels in the imaging system (100, 200) divided by a minimum f# of the imaging system, has a value greater than 20. an active light source for illuminating a scene imaged by the imaging system; and first and second 3D cameras that provide distances to features in a scene that they image based on the active light illumination, each of the first and second cameras comprising an optical system having an optical axis and a photosensor having pixels on which the camera images light, and a field of view, FOV, (30, 130) characterized by a view angle, θ, in a plane that contains the optical axis; wherein the optical axes of the first and a second cameras intersect at an intersection region common to their FOVs (30, 130) at an angle equal to half a sum of their view angles to provide the imaging system (100, 200) with an enlarged FOV (30, 130) having an enlarged view angle, Θ, in a plane defined by the intersecting optical axes that is equal to a sum of the view angles of the cameras; and wherein the system's light acquisition sensitivity, as defined by a product of a vignetting factor of the imaging system (100, 200) times a square of a quotient equal to a diameter of pixels in the imaging system (100, 200) divided by a minimum f# of the imaging system, has a value greater than 20.
Heat exchanger for a motor vehicle, comprising: - a core bundle for the exchange of heat between at least a first and a second fluid, - a shell to house the said core bundle, comprising two opposite ends (25, 27) which extend beyond the core bundle at each end, - at least one header (7; 9) for the first fluid, the said header (7, 9) being made of plastic and respectively comprising a heel having a groove to house one end (25, 27) of the shell and to house an adhesive so that the core bundle can be assembled with the said header (7, 9) by bonding, characterized in that it further comprises a metal reinforcement (43, 47) arranged in mechanical contact on the one hand with at least the said header (7, 9) and on the other hand with the end (25, 27) of the shell housed in the groove of the header (7, 9). - a core bundle for the exchange of heat between at least a first and a second fluid, - a shell to house the said core bundle, comprising two opposite ends (25, 27) which extend beyond the core bundle at each end, - at least one header (7; 9) for the first fluid, the said header (7, 9) being made of plastic and respectively comprising a heel having a groove to house one end (25, 27) of the shell and to house an adhesive so that the core bundle can be assembled with the said header (7, 9) by bonding, characterized in that it further comprises a metal reinforcement (43, 47) arranged in mechanical contact on the one hand with at least the said header (7, 9) and on the other hand with the end (25, 27) of the shell housed in the groove of the header (7, 9).
A user device for a radio communication system supporting dual connectivity, the user device comprising: a transmitter configured to transmit an uplink signal to a base station by using a first component carrier and a second component carrier having a TTI length shorter than a TTI length of the first component carrier; characterized by further comprising a calculator configured to calculate a lower limit and an upper limit of a maximum transmission power of the uplink signal according to predetermined formulas using a subframe of the first component carrier as a reference subframe, wherein the calculator is further configured to: combine the subframe of the first component carrier with respective more than two subframes of the second component carrier that overlap the subframe of the first component carrier between a start point and an end point of the subframe of the first component carrier, calculate the lower limit of the maximum transmission power using one of the combinations whose lower limit of the maximum transmission power is smallest, and calculate the upper limit of the maximum transmission power using one of the combinations whose upper limit of the maximum transmission power is largest. a transmitter configured to transmit an uplink signal to a base station by using a first component carrier and a second component carrier having a TTI length shorter than a TTI length of the first component carrier; characterized by further comprising a calculator configured to calculate a lower limit and an upper limit of a maximum transmission power of the uplink signal according to predetermined formulas using a subframe of the first component carrier as a reference subframe, wherein the calculator is further configured to: combine the subframe of the first component carrier with respective more than two subframes of the second component carrier that overlap the subframe of the first component carrier between a start point and an end point of the subframe of the first component carrier, calculate the lower limit of the maximum transmission power using one of the combinations whose lower limit of the maximum transmission power is smallest, and calculate the upper limit of the maximum transmission power using one of the combinations whose upper limit of the maximum transmission power is largest. combine the subframe of the first component carrier with respective more than two subframes of the second component carrier that overlap the subframe of the first component carrier between a start point and an end point of the subframe of the first component carrier, calculate the lower limit of the maximum transmission power using one of the combinations whose lower limit of the maximum transmission power is smallest, and calculate the upper limit of the maximum transmission power using one of the combinations whose upper limit of the maximum transmission power is largest.
Textile device arranged to cooperate with an electronic device comprising at least a first magnetic connection means, an electronic circuit comprising at least one connection track, and at least a first positioning means; said textile device comprising: - a textile comprising at least one conductive zone; - at least one second magnetic connection means, connected to a first face of the textile, adapted to cooperate with the at least one first magnetic connection means of the electronic device so as to create an attractive force with the at least a first magnetic connection means of the electronic device; - at least one second positioning means adapted to cooperate with the at least one first positioning means of the electronic device so as to position the textile device relative to the electronic device; wherein the at least one means for positioning the textile device is arranged so that the at least one conductive zone of the textile device is connected to at least one connection track of the electronic circuit on the second side of the textile. - a textile comprising at least one conductive zone; - at least one second magnetic connection means, connected to a first face of the textile, adapted to cooperate with the at least one first magnetic connection means of the electronic device so as to create an attractive force with the at least a first magnetic connection means of the electronic device; - at least one second positioning means adapted to cooperate with the at least one first positioning means of the electronic device so as to position the textile device relative to the electronic device;
A control system for a radio frequency, RF, communication device, the system comprising: a communication controller configured to control an RF communication of the RF communication device; a detector configured to detect the presence of an external communication device and to initiate a wake-up of the communication controller in dependence on said presence; wherein the detector is configured to detect said presence by detecting a first load on an RF interface of the RF communication device, said first load resulting from a first transmitted RF pulse; characterized in that the detector is configured to initiate said wake-up if a difference between the first load and a reference load is above a high threshold, and to perform a presence verification if the difference between the first load and the reference load is between a low threshold and the high threshold; wherein performing the presence verification comprises transmitting a second RF pulse and comparing a second load, which results from the second RF pulse, with the first load, and comparing a difference between the first load and the second load with a difference threshold and concluding that the external communication device is present if the difference between the first load and the second load exceeds the difference threshold. a communication controller configured to control an RF communication of the RF communication device; a detector configured to detect the presence of an external communication device and to initiate a wake-up of the communication controller in dependence on said presence; wherein the detector is configured to detect said presence by detecting a first load on an RF interface of the RF communication device, said first load resulting from a first transmitted RF pulse; characterized in that the detector is configured to initiate said wake-up if a difference between the first load and a reference load is above a high threshold, and to perform a presence verification if the difference between the first load and the reference load is between a low threshold and the high threshold; wherein performing the presence verification comprises transmitting a second RF pulse and comparing a second load, which results from the second RF pulse, with the first load, and comparing a difference between the first load and the second load with a difference threshold and concluding that the external communication device is present if the difference between the first load and the second load exceeds the difference threshold.
A method for enabling a transmitting node to communicate with a disadvantaged node of a wireless communication network, said disadvantaged node being a node in the network that is subject to localized interference that is present within a jammed region, the method comprising: for each of a plurality of candidate nodes in the network, determining node data including statistics on communication performance and a noise level applicable to that candidate node, and sharing the node data with one or more other nodes in the network; for each of the plurality of candidate nodes in the network, determining a node quality from the determined node data for that candidate node and node data received from the one or more other nodes in the network; for each of the plurality of candidate nodes in the network, determining a quality level applicable to the candidate node; characterized in said quality level being dependent at least in part on the determined node quality and a proximity of the candidate node to the disadvantaged node; and the method further comprising: according to the quality levels of the candidate nodes, designating a node from among the plurality of candidate nodes as a relay node; and relaying by the relay node of a communication between the transmitting node and the disadvantaged node. for each of a plurality of candidate nodes in the network, determining node data including statistics on communication performance and a noise level applicable to that candidate node, and sharing the node data with one or more other nodes in the network; for each of the plurality of candidate nodes in the network, determining a node quality from the determined node data for that candidate node and node data received from the one or more other nodes in the network; for each of the plurality of candidate nodes in the network, determining a quality level applicable to the candidate node; characterized in said quality level being dependent at least in part on the determined node quality and a proximity of the candidate node to the disadvantaged node; and the method further comprising: according to the quality levels of the candidate nodes, designating a node from among the plurality of candidate nodes as a relay node; and relaying by the relay node of a communication between the transmitting node and the disadvantaged node. according to the quality levels of the candidate nodes, designating a node from among the plurality of candidate nodes as a relay node; and relaying by the relay node of a communication between the transmitting node and the disadvantaged node.