mhurhangee/patent-ind-claim-en huggingface dataset:
An imager assembly for a vehicle comprising: an optic lens comprising a proximal end portion, a distal end portion, and a longitudinal axis extending there between, wherein the optic lens forms a profile comprising a groove , wherein the groove is configured to receive a seal ; an imager circuit comprising at least one circuit comprising an imager ; wherein the assembly is characterized by a lens holder formed of a conductive material, wherein the lens holder forms: a shielded cavity , wherein the shielded cavity is configured to receive the imager circuit ; and a mounting surface configured to receive a mating surface of the imager circuit , wherein the mounting surface is configured to align the longitudinal axis of the optic lens with the imager , and wherein the lens holder is configured to shield the imager circuit electromagnetic interference and prevent emissions from radiating out of the imager circuit from the lens holder ; and a housing configured to receive the lens holder , wherein a portion of the optic lens is positioned between the lens holder and the housing and the seal is disposed between the optic lens and the housing forming a sealed enclosure of the imager assembly . an optic lens comprising a proximal end portion, a distal end portion, and a longitudinal axis extending there between, wherein the optic lens forms a profile comprising a groove , wherein the groove is configured to receive a seal ; an imager circuit comprising at least one circuit comprising an imager ; wherein the assembly is characterized by a lens holder formed of a conductive material, wherein the lens holder forms: a shielded cavity , wherein the shielded cavity is configured to receive the imager circuit ; and a mounting surface configured to receive a mating surface of the imager circuit , wherein the mounting surface is configured to align the longitudinal axis of the optic lens with the imager , and wherein the lens holder is configured to shield the imager circuit electromagnetic interference and prevent emissions from radiating out of the imager circuit from the lens holder ; and a shielded cavity , wherein the shielded cavity is configured to receive the imager circuit ; and a mounting surface configured to receive a mating surface of the imager circuit , wherein the mounting surface is configured to align the longitudinal axis of the optic lens with the imager , and wherein the lens holder is configured to shield the imager circuit electromagnetic interference and prevent emissions from radiating out of the imager circuit from the lens holder ; and a housing configured to receive the lens holder , wherein a portion of the optic lens is positioned between the lens holder and the housing and the seal is disposed between the optic lens and the housing forming a sealed enclosure of the imager assembly .
Gripping device of a portable multimedia device, comprising a pocket inside which slides a slide to which a support is hinged, the support having at least a first opening to house at least one finger of a user, the support being movable with respect to the slide between at least one lowered position in which it is folded inside a seat of the slide so as to be completely contained in the thickness of the slide itself, and an operative position in which the support is angled with respect to the slide and protrudes with respect to it, the slide being associated with a second elastic element which recalls the slide inside the pocket , the slide having a projection configured to stop against an edge of said pocket and to constitute an end-of-stroke element for the movement of the slide pulled by the second elastic element when the support is angled with respect to the slide and the slide is recalled inside the pocket .
A device for winding/unwinding a screen for closing an opening formed in a wall of a building, of the roller shutter type, including: - a rotating drum for winding/unwinding the apron, said drum being able to be secured to two stationary end supports ; - motor means arranged at one of the ends of the drum , mounted sliding inside said drum between a retracted state and an expanded state causing the length of the winding/unwinding device to vary between a first length smaller than the distance d separating the supports and a second, deployed length substantially equal to said distance d; - said motor means including fastening means to a first support ; - a fastening endpiece to the second support equipping the other end of the drum ; characterized in that the motor means include axial blocking means for blocking the device in the expanded state corresponding to said deployed length. - a rotating drum for winding/unwinding the apron, said drum being able to be secured to two stationary end supports ; - motor means arranged at one of the ends of the drum , mounted sliding inside said drum between a retracted state and an expanded state causing the length of the winding/unwinding device to vary between a first length smaller than the distance d separating the supports and a second, deployed length substantially equal to said distance d; - said motor means including fastening means to a first support ; - a fastening endpiece to the second support equipping the other end of the drum ;
A loader assembly for loading a transcatheter heart valve into a delivery sheath for delivering the heart valve into a body of a patient, the loader assembly comprising: a loader tube having a first end , a second end , and a central axis extending through the first and second ends, the loader tube comprising a tube wall defining a coaxial bore, wherein the tube wall has a first section at the first end with a first diameter, a second section connected to a distal end of the first section and having a second diameter smaller than the first diameter, and a third section connected to a distal end of the second section and having a third diameter greater than the second diameter; a hub positioned around at least a portion of the first section of the loader tube ; and a cap being attached to a proximal end of the hub and comprising at least one seal configured to maintain hemostasis in the loader tube when the coaxial bore of the loader tube is in communication with a blood vessel of the patient. a loader tube having a first end , a second end , and a central axis extending through the first and second ends, the loader tube comprising a tube wall defining a coaxial bore, wherein the tube wall has a first section at the first end with a first diameter, a second section connected to a distal end of the first section and having a second diameter smaller than the first diameter, and a third section connected to a distal end of the second section and having a third diameter greater than the second diameter; a hub positioned around at least a portion of the first section of the loader tube ; and a cap being attached to a proximal end of the hub and comprising at least one seal configured to maintain hemostasis in the loader tube when the coaxial bore of the loader tube is in communication with a blood vessel of the patient.
A signal processing device , wherein the signal processing device is configured to process an analog input signal from a sensor and to deliver a notification signal to a control device , the signal processing device comprises: an A/D conversion part configured to convert the analog input signal from the sensor into a digital signal cyclically; a control part , wherein the A/D conversion part is configured to transmit the digital signal to the control part ; characterized in that the control part comprises: a signal state determination part configured to determine based on the received digital signal, for the analog input signal, whether an over-range or under-range state lasts longer than a predetermined time; and a notification part configured to notify the control device that the over-range or under-range state occurs when the signal state determination part determines that the state lasts longer than the predetermined time. an A/D conversion part configured to convert the analog input signal from the sensor into a digital signal cyclically; a control part , wherein the A/D conversion part is configured to transmit the digital signal to the control part ; characterized in that the control part comprises: a signal state determination part configured to determine based on the received digital signal, for the analog input signal, whether an over-range or under-range state lasts longer than a predetermined time; and a notification part configured to notify the control device that the over-range or under-range state occurs when the signal state determination part determines that the state lasts longer than the predetermined time. a signal state determination part configured to determine based on the received digital signal, for the analog input signal, whether an over-range or under-range state lasts longer than a predetermined time; and a notification part configured to notify the control device that the over-range or under-range state occurs when the signal state determination part determines that the state lasts longer than the predetermined time.
A modular energy system for use in a surgical environment, the system comprising: a plurality of functional modules , wherein at least two of the plurality of functional modules respectively comprise: a module control circuit ; a local data bus comprising a communication switch in data communication with the control circuit; and a transceiver timer; and an internal data bus comprising a serial array of the local data busses of the plurality of functional modules in mutual data communication, wherein a first functional module of the plurality of functional modules is configured to transmit a data message over the internal data bus to a second functional module of the plurality of functional modules, wherein the first functional module is configured to: obtain a transmission time from a transceiver timer of the first functional module ; append the transmission time to the data message ; and transmit the data message over the internal data bus to the second functional module; and wherein the second functional module is configured to: receive the data message over the internal data bus from the first functional module; obtain a receipt time from a transceiver timer of the second functional module; and obtain the transmission time from the data message. a plurality of functional modules , wherein at least two of the plurality of functional modules respectively comprise: a module control circuit ; a local data bus comprising a communication switch in data communication with the control circuit; and a transceiver timer; and a module control circuit ; a local data bus comprising a communication switch in data communication with the control circuit; and a transceiver timer; and an internal data bus comprising a serial array of the local data busses of the plurality of functional modules in mutual data communication, wherein a first functional module of the plurality of functional modules is configured to transmit a data message over the internal data bus to a second functional module of the plurality of functional modules, wherein the first functional module is configured to: obtain a transmission time from a transceiver timer of the first functional module ; append the transmission time to the data message ; and transmit the data message over the internal data bus to the second functional module; and obtain a transmission time from a transceiver timer of the first functional module ; append the transmission time to the data message ; and transmit the data message over the internal data bus to the second functional module; and wherein the second functional module is configured to: receive the data message over the internal data bus from the first functional module; obtain a receipt time from a transceiver timer of the second functional module; and obtain the transmission time from the data message. receive the data message over the internal data bus from the first functional module; obtain a receipt time from a transceiver timer of the second functional module; and obtain the transmission time from the data message.
A manufacturing device for additive manufacturing of a three-dimensional component made from a powder , the manufacturing device comprising: a working surface and a top wall delimiting a manufacturing space , wherein the working surface includes a powder bed region , the top wall includes a protective glass window arranged above the powder bed region , and a beam passage zone of the manufacturing space extends between the protective glass window and the powder bed region , a laser beam for irradiating powder located in the powder bed region able to be radiated into said beam passage zone through the protective glass window , and a shielding gas system having two outflow ducts arranged on the top wall on both sides of the beam passage zone , each of the ducts having a duct wall for delimiting a duct interior , wherein each of the outflow ducts has gas permeable duct wall sections in an inner side region of the duct wall facing the other outflow duct , respectively, and in an underside region of the duct wall facing the working surface , and wherein the gas permeable duct wall sections are provided along a duct axis (K) of the outflow duct over an outflow length which is at least equal to the extent (A) of the powder bed region in the direction of the duct axis (K), and wherein the shielding gas system further comprises an intake opening for drawing the shielding gas out of the manufacturing space . a working surface and a top wall delimiting a manufacturing space , wherein the working surface includes a powder bed region , the top wall includes a protective glass window arranged above the powder bed region , and a beam passage zone of the manufacturing space extends between the protective glass window and the powder bed region , a laser beam for irradiating powder located in the powder bed region able to be radiated into said beam passage zone through the protective glass window , and a shielding gas system having two outflow ducts arranged on the top wall on both sides of the beam passage zone , each of the ducts having a duct wall for delimiting a duct interior , wherein each of the outflow ducts has gas permeable duct wall sections in an inner side region of the duct wall facing the other outflow duct , respectively, and in an underside region of the duct wall facing the working surface , and wherein the gas permeable duct wall sections are provided along a duct axis (K) of the outflow duct over an outflow length which is at least equal to the extent (A) of the powder bed region in the direction of the duct axis (K), and wherein the shielding gas system further comprises an intake opening for drawing the shielding gas out of the manufacturing space .
A computer system comprising: a first transaction accelerator operatively connected to a Wide Area Network, WAN (103; 203), the transaction accelerator to service a first plurality of Local Area Networks, LANs (101, 102; 201, 202); and a second transaction accelerator operatively connected to the WAN (103; 203) and to the first transaction accelerator , the second transaction accelerator to service a second plurality of LANs (104; 204), and the first transaction accelerator , the first transaction accelerator and the second transaction accelerator both including a provider edge, PE, router and a WAN optimization device , characterized by the PE router of the first transaction accelerator and the WAN optimization device operatively connected through an 802.1Q trunk, the PE router of the first transaction accelerator comprises a VRFin table , the PE router being arranged to look up a destination address contained within the VRFin table based on a header of a Transmission Control Protocol/Internet Protocol, TCP/IP, based data packet, the PE router of the first transaction accelerator being arranged to apply a Virtual LAN, VLAN, header comprising a VLAN identifier, ID, based on the result of the VRFin table lookup to the TCP/IP based data packet, and then transmit the TCP/IP based data packet to the WAN optimization device via the 802.1Q trunk, the WAN optimization device of the first transaction accelerator being arranged to optimize the TCP/IP based data packet prior to routing the TCP/IP based data packet to the second transaction accelerator via the WAN (103; 203). a first transaction accelerator operatively connected to a Wide Area Network, WAN (103; 203), the transaction accelerator to service a first plurality of Local Area Networks, LANs (101, 102; 201, 202); and a second transaction accelerator operatively connected to the WAN (103; 203) and to the first transaction accelerator , the second transaction accelerator to service a second plurality of LANs (104; 204), and the first transaction accelerator , the first transaction accelerator and the second transaction accelerator both including a provider edge, PE, router and a WAN optimization device , characterized by the PE router of the first transaction accelerator and the WAN optimization device operatively connected through an 802.1Q trunk, the PE router of the first transaction accelerator comprises a VRFin table , the PE router being arranged to look up a destination address contained within the VRFin table based on a header of a Transmission Control Protocol/Internet Protocol, TCP/IP, based data packet, the PE router of the first transaction accelerator being arranged to apply a Virtual LAN, VLAN, header comprising a VLAN identifier, ID, based on the result of the VRFin table lookup to the TCP/IP based data packet, and then transmit the TCP/IP based data packet to the WAN optimization device via the 802.1Q trunk, the WAN optimization device of the first transaction accelerator being arranged to optimize the TCP/IP based data packet prior to routing the TCP/IP based data packet to the second transaction accelerator via the WAN (103; 203).
A method of signal transmission, comprising: detecting (S310), by a terminal device, a plurality of Synchronization Signals, SSs, sent by a network device in an SS period; and detecting (S320), by the terminal device according to the detected plurality of SSs, broadcast channels sent by the network device and corresponding to the plurality of SS, wherein the corresponding broadcast channels comprise a plurality of broadcast channels containing the same information, and characterized in that , the method further comprises: sending, by the terminal device, broadcast channel indication information to the network device, the broadcast channel indication information being configured to indicate a first broadcast channel in the plurality of broadcast channels, the first broadcast channel being determined according to Reference Signal Received Power, RSRP, and the broadcast channel indication information being sent through a random access channel. detecting (S310), by a terminal device, a plurality of Synchronization Signals, SSs, sent by a network device in an SS period; and detecting (S320), by the terminal device according to the detected plurality of SSs, broadcast channels sent by the network device and corresponding to the plurality of SS, wherein the corresponding broadcast channels comprise a plurality of broadcast channels containing the same information, and characterized in that , the method further comprises: sending, by the terminal device, broadcast channel indication information to the network device, the broadcast channel indication information being configured to indicate a first broadcast channel in the plurality of broadcast channels, the first broadcast channel being determined according to Reference Signal Received Power, RSRP, and the broadcast channel indication information being sent through a random access channel.
High pressure pump of a diesel fuel injection equipment of an internal combustion engine, said pump having a housing with walls surrounding an inner space (S) and being provided with an inner channel extending through said walls joining said inner space (S) to a compression chamber, said inner channel comprising a recess wherein, in use fuel enters (A1) from an inner end and exits (A2) via an opening in a lateral face , said inner end and opening defining a right angle and wherein, arranged in said recess , the HP pump further comprises a debris collector comprising a grid member and a magnetic member and wherein, said recess comprises an inner portion extending along a main axis (X) from said inner end to an annular shoulder face joining a larger outer portion , said outer portion ultimately opening in an external face of the housing , the grid member comprising a tubular portion at an end of which is formed a transverse annular collar , the tubular portion being inserted in said recess inner portion , the collar being arranged against said shoulder face , wherein the magnetic member comprises a head from which extends a cylindrical stem , the head sealingly closing said recess, the stem extending inside the recess, said head being sealingly tightened in the recess outer portion compressing the collar of the grid member against the shoulder face and, said stem axially extending in said tubular portion of the grid member. said recess comprises an inner portion extending along a main axis (X) from said inner end to an annular shoulder face joining a larger outer portion , said outer portion ultimately opening in an external face of the housing , the grid member comprising a tubular portion at an end of which is formed a transverse annular collar , the tubular portion being inserted in said recess inner portion , the collar being arranged against said shoulder face , wherein the magnetic member comprises a head from which extends a cylindrical stem , the head sealingly closing said recess, the stem extending inside the recess, said head being sealingly tightened in the recess outer portion compressing the collar of the grid member against the shoulder face and, said stem axially extending in said tubular portion of the grid member.
A fan, with at least one device, with a first fan unit , with a second unit , in particular a second fan unit, with a bearing unit (14a-e), bearing the first fan unit and the second unit , in particular the second fan unit, rotatably relative to one another about an axis of rotation (16a-e), and with a damping unit (18a-e) provided to at least partially dampen a relative movement of the first fan unit and the second unit , in particular the second fan unit, in a first axial direction at least substantially parallelly aligned with the axis of rotation (16a-e) and in a second axial direction at least substantially parallelly aligned with the axis of rotation (16a-e), characterized in that the damping unit has at least two damping members at least partially configured to be flexible, which are configured as Belleville springs, wherein the damping unit hast at least one biasing member for influencing a damping behavior of the two damping members configured as Belleville springs, and wherein the at least one biasing member is provided to produce damping behaviors of the at least two damping members configured separately from one another, which are essentially different from one another.