mhurhangee/ep-ind-claims huggingface dataset:
A latch system comprising: a paddle button assembly that includes a button that is movable between a home position and an actuation position, a latch assembly that includes a striker assembly and a hook assembly, and a cable that extends between the paddle button assembly and the latch assembly, wherein movement of the button from the home position to the actuation position moves the cable, thereby disengaging the hook assembly and striker assembly; wherein the hook assembly includes a hook and the striker assembly includes a striker, and wherein movement of the cable causes movement of one of the hook and the striker to disengage the hook assembly and the striker assembly; wherein movement of the button pushes or pulls the cable, thereby pivoting a trigger arm from an engaged position to a disengaged position and disengaging the hook from the striker; characterized in that the hook assembly includes an indicator that is movable from a first position to a second position when the trigger arm is moved from the engaged position to the disengaged position; wherein the indicator is enclosed in a housing, wherein the indicator extends outwardly from the housing when in the second position; and wherein the housing is a hook assembly housing that defines a housing interior that houses the components of the hook assembly. a paddle button assembly that includes a button that is movable between a home position and an actuation position, a latch assembly that includes a striker assembly and a hook assembly, and a cable that extends between the paddle button assembly and the latch assembly, wherein movement of the button from the home position to the actuation position moves the cable, thereby disengaging the hook assembly and striker assembly; wherein the hook assembly includes a hook and the striker assembly includes a striker, and wherein movement of the cable causes movement of one of the hook and the striker to disengage the hook assembly and the striker assembly; wherein movement of the button pushes or pulls the cable, thereby pivoting a trigger arm from an engaged position to a disengaged position and disengaging the hook from the striker; characterized in that the hook assembly includes an indicator that is movable from a first position to a second position when the trigger arm is moved from the engaged position to the disengaged position; wherein the indicator is enclosed in a housing, wherein the indicator extends outwardly from the housing when in the second position; and wherein the housing is a hook assembly housing that defines a housing interior that houses the components of the hook assembly.
An indirect fuel injection internal combustion engine with an air intake distributor for the indirect fuel injection internal combustion engine, comprising a cylinder head wherein tubular intake ducts are hollowed out, which open on one side into an intake chamber surrounded by the intake distributor, and on the opposite side into a combustion chamber delimited by a cylinder, a piston and the lower wall of the cylinder head, said distributor comprising inlet orifices for a de-oiled gas feed ramp, the intake chamber being divided into air passage compartments, each of which is dedicated to a cylinder and comprises an intake device for de-oiled gases capable of controlling the aeraulic seal between two adjacent compartments, the inlet device being able to prevent the passage of gas and air from the corresponding compartment to the de-oiled gas feed ramp, the device allowing the passage of de-oiled gas from the feed ramp to the corresponding air passage compartment, characterized in that the device is housed in a fixing wall of the distributor against the cylinder head, the device comprising elastic gas flow control means (34, 35), the feed ramp being surrounded by a seal comprising an upper bead extending substantially parallel to the ramp and placed between the ramp and the intake chamber, and a lower bead extending substantially parallel to the ramp and disposed between the ramp and the outside of the distributor, the upper seal bead carrying the resilient gas flow control means (34, 35).
Apparatus for dental and facial imaging, comprising: a rotatable gantry having an axis of rotation; a source of penetrating radiation mounted on the gantry, the source having an x-ray axis; a detector for the radiation mounted opposite the source on the gantry, so that the head of the patient can be positioned between the source and the detector, with the axis of rotation of the gantry passing through the patient's head, the detector including a rectangular sensor array; wherein the detector is elongated and has a long axis, and is mounted rotatably between a first position in which the long axis of the detector is generally perpendicular to the axis of rotation of the gantry and a second position in which the long axis of the detector is generally parallel to the axis of rotation of the gantry; characterized in that the apparatus further comprises a collimator adapted to collimate the x-ray beam to the changes in the position of the detector; wherein the detector rotates about a detector axis that is parallel to but offset from the x-ray axis, wherein the sensor array further has a first long side and a second long side that are generally parallel to the long axis, wherein when the sensor array is in the first position, the x-ray axis is aligned with the center of the sensor array, and wherein when the sensor array is in the second position, the first long side is a first non-zero distance from the x-ray axis and the second long side is a second non-zero distance from the x-ray axis, the first and second non-zero distances being different from each other. a rotatable gantry having an axis of rotation; a source of penetrating radiation mounted on the gantry, the source having an x-ray axis; a detector for the radiation mounted opposite the source on the gantry, so that the head of the patient can be positioned between the source and the detector, with the axis of rotation of the gantry passing through the patient's head, the detector including a rectangular sensor array;
A method executed in a mobile device, the method comprising: in respect of a communication service that can be supported using a Packet Switched, PS, service or a Circuit Switched, CS, service: detecting that the mobile device is unable to process data for the PS service; wherein detecting that the mobile device is unable to process the data for the PS service comprises monitoring a Packet Switched, PS, service support component (209, 409, 709, 1109, 1309) for supporting a communication service using the PS service (5-2, 6-2), wherein monitoring said component comprises monitoring a heartbeat message for the component of the mobile device so as to detect that the component (209, 409, 709, 909, 1109, 1309) of the mobile device that supports the communication service using the PS service is inoperable; and in response to detecting that the mobile device is unable to process data for the PS service, attempting to support the communication service using the CS service. in respect of a communication service that can be supported using a Packet Switched, PS, service or a Circuit Switched, CS, service: detecting that the mobile device is unable to process data for the PS service; wherein detecting that the mobile device is unable to process the data for the PS service comprises monitoring a Packet Switched, PS, service support component (209, 409, 709, 1109, 1309) for supporting a communication service using the PS service (5-2, 6-2), wherein monitoring said component comprises monitoring a heartbeat message for the component of the mobile device so as to detect that the component (209, 409, 709, 909, 1109, 1309) of the mobile device that supports the communication service using the PS service is inoperable; and in response to detecting that the mobile device is unable to process data for the PS service, attempting to support the communication service using the CS service. detecting that the mobile device is unable to process data for the PS service; wherein detecting that the mobile device is unable to process the data for the PS service comprises monitoring a Packet Switched, PS, service support component (209, 409, 709, 1109, 1309) for supporting a communication service using the PS service (5-2, 6-2), wherein monitoring said component comprises monitoring a heartbeat message for the component of the mobile device so as to detect that the component (209, 409, 709, 909, 1109, 1309) of the mobile device that supports the communication service using the PS service is inoperable; and in response to detecting that the mobile device is unable to process data for the PS service, attempting to support the communication service using the CS service.
Fastening arrangement comprising a fastening element having a base part and a first locking element and a second locking element, wherein the first and second locking elements (9, 11) are fixed to the base part and can assume a locking position and a release position, wherein the base part comprises a first electroactive polymer actuator comprising a first electrode layer and a second electrode layer extending parallel to each other wherein a first electroactive polymer layer is provided between the first and second electrode layers (13, 15), wherein the first electroactive polymer actuator is configured such that application of a predetermined electrical voltage between the first and second electrode layers (13, 15) results in a change in dimension of the first electroactive polymer layer parallel to the first and second electrode layers (13, 15) characterized in that the fastening element is configured such that the first and second locking elements (9, 11) are in the locking position when no electrical voltage is applied between the first and second electrode layers (13, 15) and wherein the first and second locking elements (9, 11) are pivoted relative to each other to the release position when an electrical voltage is applied between the first and second electrode layers (13, 15). wherein the first and second locking elements (9, 11) are fixed to the base part and can assume a locking position and a release position, wherein the base part comprises a first electroactive polymer actuator comprising a first electrode layer and a second electrode layer extending parallel to each other wherein a first electroactive polymer layer is provided between the first and second electrode layers (13, 15), wherein the first electroactive polymer actuator is configured such that application of a predetermined electrical voltage between the first and second electrode layers (13, 15) results in a change in dimension of the first electroactive polymer layer parallel to the first and second electrode layers (13, 15) characterized in that the fastening element is configured such that the first and second locking elements (9, 11) are in the locking position when no electrical voltage is applied between the first and second electrode layers (13, 15) and wherein the first and second locking elements (9, 11) are pivoted relative to each other to the release position when an electrical voltage is applied between the first and second electrode layers (13, 15).
Injection aperture for mixing water and steam in a pipe, wherein the steam flows in a flow direction, wherein in the injection aperture there are formed a first injection line and a second injection line for injecting water into an injection aperture flow duct, wherein the injection aperture flow duct is formed by an internal injection aperture flow surface on the injection aperture, characterized in that the second injection line is arranged after the first injection line, as seen in the flow direction, wherein the first injection line opens into a first supply line in which there is arranged a regulating valve, wherein the second injection line opens into a second supply line in which there is arranged a control valve, wherein the control valve and the regulating valve are designed such that, during operation, at first no steam flows via the second injection line.
Locking cylinder comprising a locking core which can be rotated in a housing, it being possible to lock the locking core to the housing by means of at least one blocking element which can be actuated using a key, it being possible to insert the key into the locking core and to take the key out of said locking core when the locking core is in a rotational release position, an additional locking means for locking the locking core to the housing being provided which can be actuated independently of the blocking element and the key and by means of a motor drive, the additional locking means comprising a locking element which, in a locking position, prevents a rotational movement of the locking core relative to the housing and, in a release position, allows a rotational movement of the locking core relative to the housing, characterized in that the additional locking means comprises a spring which can be locally shifted by means of the motor drive and interacts with the locking element, it not being possible to transfer the locking element into its locking position when the spring is in a release position and the spring applying force to the locking element when the spring is in a locking position, which force preloads the locking element in the direction of its locking position when in a rotational position that is different from the rotational release position of the locking core and transfers the locking element into the locking position when the locking core is in the rotational release position, and in that the spring is supported on a spring support element which can be locally shifted in parallel with or along a functional axis of the spring.
A method for preparing a thermistor material, including steps of: providing a first mixture including BaTiO 3, B 2 O 3, SiO 2, Li 2 O, P 2 O 5, Cs 2 O and Nd 2 O 3, wherein with respect to 100 weight parts of the first mixture, BaTiO 3 is about 94.85 weight parts to about 97.75 weight parts, B 2 O 3 is about 0.4 weight parts to about 2.5 weight parts, SiO 2 is about 0.5 weight parts to about 0.9 weight parts, Li 2 O is about 0.08 weight parts to about 0.2 weight parts, P 2 O 5 is about 0.2 weight parts to about 0.3 weight parts, Cs 2 O is about 0.6 weight parts to about 0.725 weight parts, and Nd 2 O 3 is about 0.325 weight parts to about 0.565 weight parts; sintering the first mixture at about 800 degree Celsius to about 900 degree Celsius to form a first powder material; mixing the first powder material with a second mixture including Al 2 O 3 and TiO 2, wherein with respect to 100 weight parts of BaTiO 3, Al 2 O 3 is about 0.06 weight parts to about 0.08 weight parts, and TiO 2 is about 0.07 weight parts to about 0.08 weight parts to form a second power material; granulating, pelleting and molding the second powder material to form a molded material; and subjecting the molded material to a heat treatment. providing a first mixture including BaTiO 3, B 2 O 3, SiO 2, Li 2 O, P 2 O 5, Cs 2 O and Nd 2 O 3, wherein with respect to 100 weight parts of the first mixture, BaTiO 3 is about 94.85 weight parts to about 97.75 weight parts, B 2 O 3 is about 0.4 weight parts to about 2.5 weight parts, SiO 2 is about 0.5 weight parts to about 0.9 weight parts, Li 2 O is about 0.08 weight parts to about 0.2 weight parts, P 2 O 5 is about 0.2 weight parts to about 0.3 weight parts, Cs 2 O is about 0.6 weight parts to about 0.725 weight parts, and Nd 2 O 3 is about 0.325 weight parts to about 0.565 weight parts; sintering the first mixture at about 800 degree Celsius to about 900 degree Celsius to form a first powder material; mixing the first powder material with a second mixture including Al 2 O 3 and TiO 2, wherein with respect to 100 weight parts of BaTiO 3, Al 2 O 3 is about 0.06 weight parts to about 0.08 weight parts, and TiO 2 is about 0.07 weight parts to about 0.08 weight parts to form a second power material; granulating, pelleting and molding the second powder material to form a molded material; and subjecting the molded material to a heat treatment.
A method for determining the path of an object (24, 32) transported by a global positioning robot having six degrees of freedom, including tilting relative a Z axis, and having a robot arm (16, 34) actuated by one or more motors (40, 41, 43) and adapted to transport the object between approach and pickup positions, the method including: supporting the object at the approach position using the robot arm; determining the position of the motors corresponding to the approach position; performing a set of one or more direct kinematics calculations relating the position of the motors corresponding to the approach position to the position of the object at the approach position; the method being characterized by: supporting the object at the pickup position using the robot arm; determining the position of the motors corresponding to the pickup position; performing a set of one or more direct kinematics calculations relating the position of the motors corresponding to the pickup position to the position of the object at the pickup position; performing a set of one or more inverse kinematics calculations associated with a trajectory of the object between the pickup position and the approach position; and synchronizing planar and elevational motions of the object between the approach and pickup positions, said synchronizing including synchronizing tilting and translational motions of the object. supporting the object at the approach position using the robot arm; determining the position of the motors corresponding to the approach position; performing a set of one or more direct kinematics calculations relating the position of the motors corresponding to the approach position to the position of the object at the approach position; the method being characterized by: supporting the object at the pickup position using the robot arm; determining the position of the motors corresponding to the pickup position; performing a set of one or more direct kinematics calculations relating the position of the motors corresponding to the pickup position to the position of the object at the pickup position; performing a set of one or more inverse kinematics calculations associated with a trajectory of the object between the pickup position and the approach position; and synchronizing planar and elevational motions of the object between the approach and pickup positions, supporting the object at the pickup position using the robot arm; determining the position of the motors corresponding to the pickup position; performing a set of one or more direct kinematics calculations relating the position of the motors corresponding to the pickup position to the position of the object at the pickup position; performing a set of one or more inverse kinematics calculations associated with a trajectory of the object between the pickup position and the approach position; and synchronizing planar and elevational motions of the object between the approach and pickup positions, said synchronizing including synchronizing tilting and translational motions of the object.
A manually operated press (10, 10') having an actuating member coupled to a shaft, wherein an actuation of the actuating member is converted into a stroke movement of a press ram coupled to the shaft, and hence also into a change in a relative position of the press ram, wherein the press (10, 10') further comprises a reset mechanism for resetting the actuating member, which reset mechanism counteracts the actuation of the actuating member and causes a return movement of the press ram opposite the stroke movement, wherein the reset mechanism comprises a spiral spring that is configured as a spirally wound leaf spring and comprises at its radially inner end a first connecting link which is configured as a curved portion which is integrally connected to the spiral spring, wherein the first connecting link is curved in a direction of curvature of the spiral spring, characterized in that the spiral spring at its radially outer end comprises a second connecting link which is configured as a curved portion which is integrally connected to the spiral spring, wherein the second connecting link is curved opposite to the curvature of the spiral spring, and in that the shaft comprises a web which is oriented parallel to a longitudinal axis of the shaft, wherein a cavity, in which the first connecting link engages, is arranged between the web and an outside of the shaft facing towards the web.
A boosting/blanking method for boosting/blanking the filament current of the filament of a cathode of an X-ray tube, comprising the steps of a) measuring the temporal variation (IE(t)) during boost of the tube current of the X-ray tube; b) storing the temporal variation (IE(t)) in a first memory; c) applying a boosting/blanking current to the filament for a short time interval (At); d.1) determining, based on the stored temporal variation (IE(t)) of the tube current, the tube current after the short time interval (At), and storing the tube current in a second memory, d.2) determining, based on the stored temporal variation (IE(t)) of the tube current, if the tube current is less than a target value of the tube current, and d.3) if so, returning to step c) d.4) else determining that the tube current is equal to the target value. a) measuring the temporal variation (IE(t)) during boost of the tube current of the X-ray tube; b) storing the temporal variation (IE(t)) in a first memory; c) applying a boosting/blanking current to the filament for a short time interval (At); d.1) determining, based on the stored temporal variation (IE(t)) of the tube current, the tube current after the short time interval (At), and storing the tube current in a second memory, d.2) determining, based on the stored temporal variation (IE(t)) of the tube current, if the tube current is less than a target value of the tube current, and d.3) if so, returning to step c) d.4) else determining that the tube current is equal to the target value.