mhurhangee/ep-ind-claims huggingface dataset:
A combination of a housing and a valve, in particular for use in hydraulic circuits, with a valve body designed as a cartridge, which can be integrated into the housing having fluid connections and fixed therein by means of a securing device (20, 26, 28), wherein the securing device has at least one blocking element in the form of a separate component located between valve body and housing, which blocking element has blocking surfaces which can be moved relative to the longitudinal axis of the valve body between an assembly position making possible the insertion of the valve body into the housing and a blocking position in which the blocking surfaces secure the valve body in an installation position preferably free of play by bearing against retaining surfaces (26, 28) of housing and valve body, wherein the respective blocking element is formed by an annular body, which can be expanded, for the installation operation, into the assembly position by elastic deformation and which, upon reaching the installation position, assumes the blocking position by recovery of shape, in which position it comes to bear, with the blocking surfaces, against the retaining surfaces (26, 28), wherein a metal snap ring with a round cross-section is provided as annular body, wherein the annular body is accommodated in an installation space located in the housing, which installation space, relative to the longitudinal axis defined by the valve body, has a radial depth making possible an expansion of the snap ring and which is axially delimited on the side facing the one installation opening of the housing by a first angular surface which forms the retaining surface of the housing, which secures the snap ring against movement in the direction of the installation opening, and wherein a further angular surface, which is situated on the valve body in front of a section with the largest external diameter in the installation direction, forms an insertion chamfer which expands the snap ring into the installation space during the insertion operation.
A passenger airbag device comprising: a cushion; and an inflator for supplying gas to the cushion, the passenger airbag device to be installed in an instrument panel, the cushion having, on the instrument panel side thereof in an inflated and deployed state, a projecting portion that serves as support means when an occupant moves forward therein, characterized in that wherein the cushion includes a main panel having a surface facing the occupant, left and right side panels joined to side edges of the main panel, and a recess formed adjacent to the projecting portion and between an attaching portion to which the inflator is to be attached and the projecting portion, wherein the projecting portion is formed by joining ends of a panel constituting the main panel. a cushion; and an inflator for supplying gas to the cushion, the passenger airbag device to be installed in an instrument panel, the cushion having, on the instrument panel side thereof in an inflated and deployed state, a projecting portion that serves as support means when an occupant moves forward therein, characterized in that wherein the cushion includes a main panel having a surface facing the occupant, left and right side panels joined to side edges of the main panel, and a recess formed adjacent to the projecting portion and between an attaching portion to which the inflator is to be attached and the projecting portion, wherein the projecting portion is formed by joining ends of a panel constituting the main panel.
A remote control device (116, 150, 202, 302, 402, 1102) comprising a communication circuit; and a control circuit configured to: identify a user interface event for toggling an on/off state of a group of lighting devices (112, 122, 204, 304, 404); transmit, via the communication circuit, a default on command or a default off command to the group of lighting devices (112, 122, 204, 304, 404); and characterised by the control circuit being configured to: determine that a state update message fails to be received in response to the default on command or the default off command after a predetermined period of time; and transmit, via the communication circuit, an opposite command of the default on command or the default off command that was previously transmitted to the group of lighting devices (112, 122, 204, 304, 404). a communication circuit; and a control circuit configured to: identify a user interface event for toggling an on/off state of a group of lighting devices (112, 122, 204, 304, 404); transmit, via the communication circuit, a default on command or a default off command to the group of lighting devices (112, 122, 204, 304, 404); and characterised by the control circuit being configured to: determine that a state update message fails to be received in response to the default on command or the default off command after a predetermined period of time; and transmit, via the communication circuit, an opposite command of the default on command or the default off command that was previously transmitted to the group of lighting devices (112, 122, 204, 304, 404). identify a user interface event for toggling an on/off state of a group of lighting devices (112, 122, 204, 304, 404); transmit, via the communication circuit, a default on command or a default off command to the group of lighting devices (112, 122, 204, 304, 404); and characterised by the control circuit being configured to: determine that a state update message fails to be received in response to the default on command or the default off command after a predetermined period of time; and transmit, via the communication circuit, an opposite command of the default on command or the default off command that was previously transmitted to the group of lighting devices (112, 122, 204, 304, 404). determine that a state update message fails to be received in response to the default on command or the default off command after a predetermined period of time; and transmit, via the communication circuit, an opposite command of the default on command or the default off command that was previously transmitted to the group of lighting devices (112, 122, 204, 304, 404).
An endoscopic surgery device comprising: a guide member configured to penetrate through a body wall to be inserted into a body cavity; an endoscope insertion path which is provided inside the guide member, and into which an endoscope configured to observe an inside of the body cavity is insertable in a back-and-forth movable manner; a treatment tool insertion path which is provided inside the guide member, and into which a treatment tool configured to inspect or treat a diseased part in the body cavity is insertable in a back-and-forth movable manner; a position sensor configured to detect a movement amount of the treatment tool with respect to the guide member when the treatment tool inserted into the treatment tool insertion path moves back and forth; and control means (314, 130) configured to not change a range of an observation image acquired by the endoscope if the movement amount of the treatment tool with respect to the guide member detected by the position sensor is within a predetermined range representing a non-sensitive area when the movement amount of the treatment tool is detected by the position sensor, the control means (314, 130) further being configured to change the range of the observation image acquired by the endoscope in accordance with the movement amount of the treatment tool with respect to the guide member if the movement amount of the treatment tool is not within the predetermined range. a guide member configured to penetrate through a body wall to be inserted into a body cavity; an endoscope insertion path which is provided inside the guide member, and into which an endoscope configured to observe an inside of the body cavity is insertable in a back-and-forth movable manner; a treatment tool insertion path which is provided inside the guide member, and into which a treatment tool configured to inspect or treat a diseased part in the body cavity is insertable in a back-and-forth movable manner; a position sensor configured to detect a movement amount of the treatment tool with respect to the guide member when the treatment tool inserted into the treatment tool insertion path moves back and forth; and control means (314, 130) configured to not change a range of an observation image acquired by the endoscope if the movement amount of the treatment tool with respect to the guide member detected by the position sensor is within a predetermined range representing a non-sensitive area when the movement amount of the treatment tool is detected by the position sensor, the control means (314, 130) further being configured to change the range of the observation image acquired by the endoscope in accordance with the movement amount of the treatment tool with respect to the guide member if the movement amount of the treatment tool is not within the predetermined range.
A method for mobile reception of a multimedia broadcast multicast service, MBMS, by a user equipment, UE, comprising: when the UE moves from a source cell to a target cell, the UE judging whether the UE will move out of or has already moved out of one or more multimedia broadcast multicast single frequency network, MBSFN, areas, wherein the step of the UE judging whether the UE will move out of or has already moved out of one or more MBSFN areas comprises: the UE judging whether a system information block type 13 of the target cell is scheduled to send, and when the system information block type 13 is not scheduled to send, the UE judging the UE will move out of or has already moved out of one or more MBSFN areas, when the system information block type 13 of the target cell is scheduled to send, acquiring one or more parameters in the MBSFN area information carried in the system information block type 13, and judging whether the UE will move out of or has already moved out of the MBSFN area according to the one or more parameters, or wherein the step of the UE judging whether the UE will move out of or has already moved out of one or more MBSFN areas comprises: the UE acquiring one or more parameters in the MBSFN area information carried in the system information block type 13 in the target cell and judging whether the UE will move out of or has already moved out of the MBSFN area according to the one or more parameters. the UE judging whether a system information block type 13 of the target cell is scheduled to send, and when the system information block type 13 is not scheduled to send, the UE judging the UE will move out of or has already moved out of one or more MBSFN areas, when the system information block type 13 of the target cell is scheduled to send, acquiring one or more parameters in the MBSFN area information carried in the system information block type 13, and judging whether the UE will move out of or has already moved out of the MBSFN area according to the one or more parameters, or wherein the step of the UE judging whether the UE will move out of or has already moved out of one or more MBSFN areas comprises: the UE acquiring one or more parameters in the MBSFN area information carried in the system information block type 13 in the target cell and judging whether the UE will move out of or has already moved out of the MBSFN area according to the one or more parameters.
A portable charger connected to a wall electric power source and configured to supply an electric power from the wall electric power source to a load, the portable charger comprising: a plug inserted in a socket installed in the wall electric power source; an electric wire connecting the plug and the load to supply an electric power from the wall electric power source to the load; a switch disposed between the plug and the electric wire to allow the supply of the electric power flowing through the electric wire to be continued or discontinued; a grasping detection unit disposed on the plug and configured to detect a grasping state of the plug; a tensile force detection unit disposed in the electric wire and configured to detect a tensile force applied to the electric wire; and a control unit configured to supply an electric power through the electric wire to the load when the plug is plugged in the socket and to cut off the electric power flowing through the electric wire by controlling the switch on the basis of the grasping state which is detected by the grasping detection unit, and the tensile force which is detected by the tensile force detection unit while the electric power is being supplied, wherein the grasping detection unit includes a pressure switch; wherein the pressure switch is configured to detect a grasping pressure when the user grasps the plug so as to unplug the plug from the wall electric power source, and to generate an electric signal based on the detected grasping pressure; and wherein the tensile force detection unit is disposed in a sheath which surrounds the electric wire. a plug inserted in a socket installed in the wall electric power source; an electric wire connecting the plug and the load to supply an electric power from the wall electric power source to the load; a switch disposed between the plug and the electric wire to allow the supply of the electric power flowing through the electric wire to be continued or discontinued; a grasping detection unit disposed on the plug and configured to detect a grasping state of the plug; a tensile force detection unit disposed in the electric wire and configured to detect a tensile force applied to the electric wire; and a control unit configured to supply an electric power through the electric wire to the load when the plug is plugged in the socket and to cut off the electric power flowing through the electric wire by controlling the switch on the basis of the grasping state which is detected by the grasping detection unit, and the tensile force which is detected by the tensile force detection unit while the electric power is being supplied,
A machining center for machining workpieces (P1, P2), comprising a machining head, movable according to a plurality of numerically controlled axes (A, B, X, Z), and a base associated with the machining head, wherein: a guide is arranged along the base; at least one workpiece supporting table, divided into a first table portion and a second table portion (21 B), is combined with the guide; at least the first table portion is movable according to a numerically controlled axis, along the guide arranged on the base; a first clamping system of workpieces to be machined (P1, P2) is combined with the first table portion (21 A); respective auxiliary guides (25A, 25B) parallel to the guide arranged on the base are combined with the first table portion and with the second table portion (21 B); the auxiliary guides of the first table portion and the auxiliary guides of the second table portion being arranged and configured so as to abut against one another, being arranged in mutual alignment, when the two table portions are set next to one another; at least one supporting member (27; 27C) of the workpieces to be machined (P1, P2) is combined with the workpiece supporting table; the supporting member (27; 27C) being provided with guide elements for engaging with the auxiliary guides (25A, 25B) of the first table portion and of the second table portion (21 B), so that the supporting member can be transferred from one to the other of the two table portions; and each supporting member being provided with a respective clamping system (27X, 27Y; 28A, 28B) of the workpieces to be machined. a guide is arranged along the base; at least one workpiece supporting table, divided into a first table portion and a second table portion (21 B), is combined with the guide; at least the first table portion is movable according to a numerically controlled axis, along the guide arranged on the base; a first clamping system of workpieces to be machined (P1, P2) is combined with the first table portion (21 A); respective auxiliary guides (25A, 25B) parallel to the guide arranged on the base are combined with the first table portion and with the second table portion (21 B); the auxiliary guides of the first table portion and the auxiliary guides of the second table portion being arranged and configured so as to abut against one another, being arranged in mutual alignment, when the two table portions are set next to one another; at least one supporting member (27; 27C) of the workpieces to be machined (P1, P2) is combined with the workpiece supporting table; the supporting member (27; 27C) being provided with guide elements for engaging with the auxiliary guides (25A, 25B) of the first table portion and of the second table portion (21 B), so that the supporting member can be transferred from one to the other of the two table portions; and each supporting member being provided with a respective clamping system (27X, 27Y; 28A, 28B) of the workpieces to be machined.
Apparatus for processing a biological sample, the apparatus comprising the following features: a first substrate with a first cavity which forms a first chamber portion of a chamber for receiving the biological sample; a second substrate with a second cavity which forms a second chamber portion of the chamber for receiving the biological sample; a filter element with a plurality of perforations, the filter element being embodied between the first cavity and the second cavity in order to hold back a plurality of organic cells of the biological sample at the plurality of perforations when moving the biological sample between the first cavity and the second cavity through the filter element; and an electrically conductive structure which is arranged at the filter element and embodied to bring about lysis of the organic cells and/or to duplicate and/or detect defined sections of the exposed DNA. a first substrate with a first cavity which forms a first chamber portion of a chamber for receiving the biological sample; a second substrate with a second cavity which forms a second chamber portion of the chamber for receiving the biological sample; a filter element with a plurality of perforations, the filter element being embodied between the first cavity and the second cavity in order to hold back a plurality of organic cells of the biological sample at the plurality of perforations when moving the biological sample between the first cavity and the second cavity through the filter element; and an electrically conductive structure which is arranged at the filter element and embodied to bring about lysis of the organic cells and/or to duplicate and/or detect defined sections of the exposed DNA.
A voltage converter (2, 2a) comprising; a voltage converter circuit; a first voltage sensor (4, 4a) and a second voltage sensor (5, 5a) both configured to measure an output voltage of the voltage converter circuit; and a controller (10, 10a) configured to execute a feedback control for the voltage converter circuit such that a voltage difference between a target voltage and a measured value of the first voltage sensor (4, 4a) becomes zero and configured to execute a predetermined error process in a case where a measured value of the second voltage sensor (5, 5a) exceeds a predetermined voltage upper limit value (Vx), wherein the predetermined error process is any one of a process of stopping the voltage converter circuit and a process of limiting an upper limit of an output of the voltage converter circuit, the controller (10, 10a) executes the feedback control for the voltage converter circuit such that a voltage difference between a correction target voltage (VLOc) and the measured value of the first voltage sensor (4, 4a) becomes zero while the measured value of the second voltage sensor (5, 5a) exceeds a voltage threshold (Vth) which is less than the voltage upper limit value (Vx), the correction target voltage (VLOc) obtained by subtracting an offset voltage (Voff) from the target voltage, the offset voltage (Voff) is a value obtained by subtracting the voltage threshold (Vth) from the measured value of the second voltage sensor (5, 5a), and the voltage threshold (Vth) is a value obtained by subtracting a measurement tolerance of the second voltage sensor (5, 5a) from the voltage upper limit value (Vx), wherein the measurement tolerance is a maximum value of a measurement error of the second voltage sensor (5, 5a).
An electrical nail polishing apparatus comprising an electrical nail polishing device and a plurality of releasably connectable heads, wherein the electrical nail polishing device comprises: a main body housing accommodating a power source electrically connected to a motor with a rotating shaft connected to a transmission gearing mechanism connected to a proximal end of a drive shaft, the transmission gearing mechanism is configured to convert the rotational motion of the rotating shaft into oscillating longitudinal movement of the drive shaft, the remote end of the drive shaft extends beyond a tip end of the housing, the tip end of the housing is configured to extend away from the main body housing by at least 2mm to provide a face surface with a flat side at or adjacent a diameter line of the main body housing with the ends of the flat side being joined by a curved side having one or more radii; and wherein the releasably connectable head comprises: a landing plate which has one side provided with a nail contact material and the other side of the landing plate is provided with a head housing inboard of the periphery of the landing plate, the head housing is closed at a top end and open at a base end and is provided with a cavity that accepts the remote end of the drive shaft and the tip end of the housing therein and wherein the cavity corresponds to the shape of the tip end, within the cavity a socket is provided that is configured to releasably connect to the drive shaft, and wherein a landing plane is provided at the base end of the landing plate by the cavity end of the head housing being located at least 2mm inboard from the base end of the landing plate.