mhurhangee/ep-ind-claims huggingface dataset:
A apparatus for determining a distance to a scene object, the apparatus comprising: an image capture device having a coded aperture and an image sensor, the image sensor being positioned out of a focus plane for the scene object; a receiver for receiving a first image of a scene from the image sensor of the image capture device; a detector for detecting at least two image objects in the image corresponding to ghost images of the scene object resulting from different openings of the coded aperture in response to an optical characteristic of the scene object, the optical characteristic being a radiation characteristic of the object towards the image capture device; a distance estimator for determining a distance to the scene object in response to a displacement in the image of the at least two image objects; said apparatus charcterized by further comprising: a light source for illuminating the scene, the light source having a characteristic arranged to emphasize the optical characteristic of the scene object such that a difference between the optical characteristic of the scene object and optical characteristics of other elements of the scene is increased. an image capture device having a coded aperture and an image sensor, the image sensor being positioned out of a focus plane for the scene object; a receiver for receiving a first image of a scene from the image sensor of the image capture device; a detector for detecting at least two image objects in the image corresponding to ghost images of the scene object resulting from different openings of the coded aperture in response to an optical characteristic of the scene object, the optical characteristic being a radiation characteristic of the object towards the image capture device; a distance estimator for determining a distance to the scene object in response to a displacement in the image of the at least two image objects; said apparatus charcterized by further comprising: a light source for illuminating the scene, the light source having a characteristic arranged to emphasize the optical characteristic of the scene object such that a difference between the optical characteristic of the scene object and optical characteristics of other elements of the scene is increased. a light source for illuminating the scene, the light source having a characteristic arranged to emphasize the optical characteristic of the scene object such that a difference between the optical characteristic of the scene object and optical characteristics of other elements of the scene is increased.
Fume collecting device via which fume-laden air is intended to be captured, incorporating a chassis portion which constitutes a substantial part of the exterior of the device, wherein the chassis portion has an upper part which is configured as a flue and a lower part, wherein the fume collecting device comprises means for procuring and controlling the intake of fumes, and a drive module (1a; 2a; 3a) arranged as a separate unit of the fume collecting device (1b; 2b; 3b) with the aim of providing for the said procurement and control, characterized in that the drive module (1a; 2a; 3a) comprises a control module, wherein the control module comprises control devices (32; 32, 34) for controlling a damper and/or a motor, and wherein the control module is mounted in a housing (10; 50) of the drive module (1a; 2a; 3a) or in connection with the upper portion (12, 52) of said housing.
A filter assembly removably-coupleable to a filter head, the filter assembly comprising: a filter body defining a mouth; a filter element disposed in the filter body; and a seal disposed on the mouth, the seal having a seal body defining a center axis; CHARACTERIZED IN THAT the seal body has an axial surface perpendicular to the center axis and an outer annular surface forming a shoulder with the axial surface, the axial surface configured to form a first sealing surface with a corresponding axial surface of a filter head, and a portion of the outer annular surface extending away from the axial surface and defining a substantially frustoconical shape that corresponds to and is configured to be interfaced with an inner surface of the filter head having a corresponding frustoconical shape, the portion of the outer annular surface configured to form a second sealing surface with the inner surface of the filter head. a filter body defining a mouth; a filter element disposed in the filter body; and a seal disposed on the mouth, the seal having a seal body defining a center axis;
A system for a gas turbine engine, comprising an airfoil having a static portion, a moveable portion, and a seal (90;104;114) between the static portion and the moveable portion, the seal (90;104;114) being moveable separately from the static portion and the moveable portion, characterised in that: the static portion includes a seat and an axially-extending passageway leading to the seat, the seal (90;104;114) at least partially received in the seat; and the seal (90;104;114) is retained against the moveable portion at least partially by a fluid, wherein pressure from the fluid flowing through the passageway urges the seal (90;104;114) against a leading surface of the moveable portion. the static portion includes a seat and an axially-extending passageway leading to the seat, the seal (90;104;114) at least partially received in the seat; and the seal (90;104;114) is retained against the moveable portion at least partially by a fluid, wherein pressure from the fluid flowing through the passageway urges the seal (90;104;114) against a leading surface of the moveable portion.
A mold for a multi-layer container, comprising: a cold-half portion including a cavity; and a hot-half portion including a first resin flow path for connecting an interior of a first injection cylinder to the cavity, a second resin flow path for connecting an interior of a second injection cylinder to the cavity, and a junction portion of the first resin flow path and the second resin flow path, characterized in that the junction portion included in the hot-half portion is positioned upstream of a gate portion opened to the cavity included in the cold-half portion, and the second resin flow path includes means for partially inhibiting a resin flow, and wherein: the means for partially inhibiting a resin flow comprises means for providing a convex portion in at least one part in the second resin flow path; and a longest portion in a diameter direction and a longest portion in a circumferential tangential direction of a cross-section in a direction perpendicular to a flow direction of the second resin flow path have a length of a mm and a length of b mm, respectively, a and b satisfying the following relationships: 0.01 r ≤ a ≤ 1 r and 0.01 r ≤ b ≤ 1 r where r represents a radius (mm) of the second resin flow path. a cold-half portion including a cavity; and a hot-half portion including a first resin flow path for connecting an interior of a first injection cylinder to the cavity, a second resin flow path for connecting an interior of a second injection cylinder to the cavity, and a junction portion of the first resin flow path and the second resin flow path, characterized in that the junction portion included in the hot-half portion is positioned upstream of a gate portion opened to the cavity included in the cold-half portion, and the second resin flow path includes means for partially inhibiting a resin flow, and wherein: the means for partially inhibiting a resin flow comprises means for providing a convex portion in at least one part in the second resin flow path; and a longest portion in a diameter direction and a longest portion in a circumferential tangential direction of a cross-section in a direction perpendicular to a flow direction of the second resin flow path have a length of a mm and a length of b mm, respectively, a and b satisfying the following relationships: 0.01 r ≤ a ≤ 1 r and 0.01 r ≤ b ≤ 1 r where r represents a radius (mm) of the second resin flow path. the means for partially inhibiting a resin flow comprises means for providing a convex portion in at least one part in the second resin flow path; and a longest portion in a diameter direction and a longest portion in a circumferential tangential direction of a cross-section in a direction perpendicular to a flow direction of the second resin flow path have a length of a mm and a length of b mm, respectively, a and b satisfying the following relationships: 0.01 r ≤ a ≤ 1 r and 0.01 r ≤ b ≤ 1 r where r represents a radius (mm) of the second resin flow path.
A powered exoskeleton configured to be coupled to a user including a plurality of joints comprising: right leg, left leg and torso portions configured to be coupled to the user and interconnected through a plurality of joints; a plurality of actuators (125, 130, 135, 140) configured to cause movement of the powered exoskeleton through the plurality of joints; and a cushioning mechanism coupled to the powered exoskeleton and configured to absorb energy or spread a force during an impact with a surface or object; and characterised by: a controller configured to determine when a fall is occurring and direct at least one of the plurality of actuators (125, 130, 135, 140) to: orient the powered exoskeleton so that the cushioning mechanism makes contact with the surface or object during the fall; or reduce a kinetic energy of the powered exoskeleton during the fall. right leg, left leg and torso portions configured to be coupled to the user and interconnected through a plurality of joints; a plurality of actuators (125, 130, 135, 140) configured to cause movement of the powered exoskeleton through the plurality of joints; and a cushioning mechanism coupled to the powered exoskeleton and configured to absorb energy or spread a force during an impact with a surface or object; and characterised by: a controller configured to determine when a fall is occurring and direct at least one of the plurality of actuators (125, 130, 135, 140) to: orient the powered exoskeleton so that the cushioning mechanism makes contact with the surface or object during the fall; or reduce a kinetic energy of the powered exoskeleton during the fall. orient the powered exoskeleton so that the cushioning mechanism makes contact with the surface or object during the fall; or reduce a kinetic energy of the powered exoskeleton during the fall.
An electrochemical cell, comprising: a cylindrical metal container having a closed bottom end, a sidewall and an open end; a spirally wound electrode assembly disposed within the container, said electrode assembly comprising a positive electrode, a negative electrode consisting essentially of lithium or a lithium alloy, a separator disposed between the positive and negative electrodes, and a non-aqueous volatile electrolyte; a circumferential inward projection in the sidewall and having an upper wall and a lower wall connected by a transition member, the upper wall inclined upwardly towards a radial center of the cell, and the upper wall spaced apart from the lower wall along their respective lengths; an end assembly closing the open end of the container, the end assembly comprising a vent member capable of venting at a predetermined internal pressure, a current limiting or interrupting member, and an insulating, polymeric seal member located between the container and a conductive contact of the end assembly, and wherein the conductive contact is operatively electrically connected to the positive electrode or negative electrode; wherein the upper wall includes an upper wall lowermost point and an upper wall uppermost point located radially closer to the center of the cell in comparison to the upper wall lowermost point, and wherein an angle between an imaginary horizontal line, perpendicular to an axis along the center of the cell and extending through the upper wall lowermost point, and an imaginary line, drawn between the upper wall lowermost point and the upper wall uppermost point, is from 1° to 30°; and wherein the circumferential inward projection has a depth that is at least 22% of the maximum radius of the container. a cylindrical metal container having a closed bottom end, a sidewall and an open end; a spirally wound electrode assembly disposed within the container, said electrode assembly comprising a positive electrode, a negative electrode consisting essentially of lithium or a lithium alloy, a separator disposed between the positive and negative electrodes, and a non-aqueous volatile electrolyte; a circumferential inward projection in the sidewall and having an upper wall and a lower wall connected by a transition member, the upper wall inclined upwardly towards a radial center of the cell, and the upper wall spaced apart from the lower wall along their respective lengths; an end assembly closing the open end of the container, the end assembly comprising a vent member capable of venting at a predetermined internal pressure, a current limiting or interrupting member, and an insulating, polymeric seal member located between the container and a conductive contact of the end assembly, and wherein the conductive contact is operatively electrically connected to the positive electrode or negative electrode;
Piston of an internal combustion engine comprising a top part produced from steel and a bottom part, the at least one joining web, in particular joining webs (10a, 10b; 11a, 11b), of which are integrally bonded in the region of a contact geometry via a friction weld to form a structural unit, wherein at least one cooling duct permeated by a coolant is integrated in the piston and a lubricating oil of the internal combustion engine passes as the coolant into an inlet opening via a free jet of an injection nozzle, flows through the cooling duct and leaves the latter via an outlet opening, wherein, for the introduction of the coolant into the cooling duct, the inlet opening includes a flow pipe (13, 23, 33, 43, 53) which is inserted in the bottom part and protrudes from a cooling duct base with an excess length, characterized in that the opening of the flow pipe is arranged above at least one weld bead (12a, 12b) of the friction weld.
A method for unlocking a calibratable electronic torque tool, in particular a torque wrench or a torque screwdriver, the use of which is prevented by a lock, comprising the following steps: - coupling a tool head of the torque tool to a tool head receptacle of a torque testing device, - establishing a direct data link between the torque tool and the torque testing device, - determining a testing device-side torque test value of the torque tool by means of a torque sensor of the torque testing device, - determining a tool-side torque test value of the torque tool by means of a torque sensor of the torque tool, - transmitting the tool-side torque test value to the torque testing device by means of the data link, - comparing the tool-side torque test value with the testing device-side torque test value by means of a data processing device which is integrated into the torque testing device, - generating an unlocking signal if a difference between the tool-side torque test value and the testing device-side torque test value lies within a specified or specifiable tolerance range, - transmitting the unlocking signal to the torque tool via the data link, - unlocking the torque tool by releasing the lock by means of the unlocking signal, wherein the lock of the torque tool is released by the unlocking signal merely for a temporary period of time or a specifiable or specified number of use cycles. - coupling a tool head of the torque tool to a tool head receptacle of a torque testing device, - establishing a direct data link between the torque tool and the torque testing device, - determining a testing device-side torque test value of the torque tool by means of a torque sensor of the torque testing device, - determining a tool-side torque test value of the torque tool by means of a torque sensor of the torque tool, - transmitting the tool-side torque test value to the torque testing device by means of the data link, - comparing the tool-side torque test value with the testing device-side torque test value by means of a data processing device which is integrated into the torque testing device, - generating an unlocking signal if a difference between the tool-side torque test value and the testing device-side torque test value lies within a specified or specifiable tolerance range, - transmitting the unlocking signal to the torque tool via the data link, - unlocking the torque tool by releasing the lock by means of the unlocking signal, wherein the lock of the torque tool is released by the unlocking signal merely for a temporary period of time or a specifiable or specified number of use cycles.
A data transmission method performed in user equipment, UE, comprising: Receiving, in a connected state, a handover-free UE identifier from a network device, wherein the handover-free UE identifier is used to identify the UE in a handover-free state; Entering, a handover-free state after meeting an activation condition, wherein the activation condition comprises: receiving a command from the network device, wherein the command is used to instruct the UE to enter the handover-free state; in the handover-free state, storing the handover-free UE identifier and a connection context that is of the UE in the connected state, and not executing a handover procedure when the UE moves in the handover-free area; sending the handover-free UE identifier to the network device after determining that a deactivation condition is met; obtaining a dedicated intra-cell UE identifier of a current serving cell from the network device; and exiting the handover-free state. Receiving, in a connected state, a handover-free UE identifier from a network device, wherein the handover-free UE identifier is used to identify the UE in a handover-free state; Entering, a handover-free state after meeting an activation condition, wherein the activation condition comprises: receiving a command from the network device, wherein the command is used to instruct the UE to enter the handover-free state; in the handover-free state, storing the handover-free UE identifier and a connection context that is of the UE in the connected state, and not executing a handover procedure when the UE moves in the handover-free area; sending the handover-free UE identifier to the network device after determining that a deactivation condition is met; obtaining a dedicated intra-cell UE identifier of a current serving cell from the network device; and exiting the handover-free state.
Floor mat comprising: - several sections each provided with a trench designed to receive an insert, each section having two lateral grooves (11 a, 11 b) extending along respectively two longitudinal axes (B1, B2), and - several joining elements, each joining element being configured to join two sections to one another, characterized in that: - each joining element comprises: o a first row of first main tabs (12a, 12c, 12e) spaced apart from one another along a longitudinal axis of the joining element and designed to cooperate with at least one lateral groove of a first section, and o a second row of second main tabs (12b, 12d, 12f) spaced apart from one another along the longitudinal axis of the joining element and designed to cooperate with at least one lateral groove (11 a) of a second section, - each main tab (12a to 12f) being configured to be inserted in at least one lateral groove (11a, 11b) of at least one section in a direction perpendicular to the longitudinal axis (B1, B2) of the lateral groove (11 a, 11 b) in which it is inserted. - several sections each provided with a trench designed to receive an insert, each section having two lateral grooves (11 a, 11 b) extending along respectively two longitudinal axes (B1, B2), and - several joining elements, each joining element being configured to join two sections to one another, - each joining element comprises: o a first row of first main tabs (12a, 12c, 12e) spaced apart from one another along a longitudinal axis of the joining element and designed to cooperate with at least one lateral groove of a first section, and o a second row of second main tabs (12b, 12d, 12f) spaced apart from one another along the longitudinal axis of the joining element and designed to cooperate with at least one lateral groove (11 a) of a second section, o a first row of first main tabs (12a, 12c, 12e) spaced apart from one another along a longitudinal axis of the joining element and designed to cooperate with at least one lateral groove of a first section, and o a second row of second main tabs (12b, 12d, 12f) spaced apart from one another along the longitudinal axis of the joining element and designed to cooperate with at least one lateral groove (11 a) of a second section, - each main tab (12a to 12f) being configured to be inserted in at least one lateral groove (11a, 11b) of at least one section in a direction perpendicular to the longitudinal axis (B1, B2) of the lateral groove (11 a, 11 b) in which it is inserted.
A base station for a mobile telecommunications system comprising circuitry configured to communicate with at least one user equipment, wherein the circuitry is further configured to: transmit, to the at least one user equipment, a multi-level pre-emption indicator for indicating, as first level information, first information about resources used for at least one Ultra Reliable and Low Latency Communications transmission within a transmission region (11, 20) which may contain at least one Enhanced Mobile Broadband transmission (12a, 12b) of the at least one user equipment, and, as second level information, second information about the resources used for the Ultra Reliable and Low Latency Communications transmission, wherein the second information more accurately indicates the resources used than the first information to reduce wrongly indicated pre-emption with respect to the first level information.