mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for connecting two electrical connectors together, the apparatus comprising: a locking collar (100, 600); a first electrical connector (200, 700); and a second electrical connector (300, 400, 800, 900); wherein the first electrical connector comprises one or more electrical contacts (332, 334, 832, 834) arranged to mate with one or more electrical contacts in the second electrical connector in order to form an electrical connection, and the collar is arranged to receive at least a portion of the first and second connectors and releasably lock the first and/or second connector, and wherein at least one of the first electrical connector and the second electrical connector comprises a main body portion (320, 820) comprising at least one channel (202, 302) on a surface for cooperating with a protrusion of the locking collar, and characterised in that the first electrical connector (300, 400, 800, 900) further comprises a contact portion (330, 830) comprising a releasable cartridge (340, 840) to retain the contacts (332, 334, 832, 834) within the main body portion, wherein the contact portion further comprises at least a first male contact (332, 832) and a first female contact (334, 834) connected to the cartridge, wherein the releasable cartridge comprises a release mechanism to enable release of the cartridge from the main body portion, and wherein releasing the cartridge from the main body portion allows for the release of the first male contact and the first female contact from the cartridge. a locking collar (100, 600); a first electrical connector (200, 700); and a second electrical connector (300, 400, 800, 900); wherein the first electrical connector comprises one or more electrical contacts (332, 334, 832, 834) arranged to mate with one or more electrical contacts in the second electrical connector in order to form an electrical connection, and the collar is arranged to receive at least a portion of the first and second connectors and releasably lock the first and/or second connector, and wherein at least one of the first electrical connector and the second electrical connector comprises a main body portion (320, 820) comprising at least one channel (202, 302) on a surface for cooperating with a protrusion of the locking collar, and characterised in that the first electrical connector (300, 400, 800, 900) further comprises a contact portion (330, 830) comprising a releasable cartridge (340, 840) to retain the contacts (332, 334, 832, 834) within the main body portion, wherein the contact portion further comprises at least a first male contact (332, 832) and a first female contact (334, 834) connected to the cartridge, wherein the releasable cartridge comprises a release mechanism to enable release of the cartridge from the main body portion, and wherein releasing the cartridge from the main body portion allows for the release of the first male contact and the first female contact from the cartridge.
Airbag system for a vehicle having - a first airbag and - a second airbag which is disposed in intended main supporting direction for the main part above the first airbag, wherein both airbags (1, 2) are disposed in a shared airbag module and can be filled by the shared airbag module, - both airbags (1, 2) can be triggered simultaneously, wherein - both airbags (1, 2) can be triggered independently of one another, - a control device, which is configured to control both airbags (1, 2), and - the airbag system is designed such that the second airbag can be triggered without the first airbag being triggered, characterised in that - the control device is designed to send to the airbag system a signal for triggering, wherein - the control device is configured to detect a seat position of a vehicle occupant and - the control device is configured in the case of a predetermined standard seat position to trigger only the second airbag when the vehicle occupant is located in the predetermined standard seat position, wherein the second airbag rests directly on a wall of the airbag module if the first airbag is not triggered - a first airbag and - a second airbag which is disposed in intended main supporting direction for the main part above the first airbag, wherein both airbags (1, 2) are disposed in a shared airbag module and can be filled by the shared airbag module, - both airbags (1, 2) can be triggered simultaneously, wherein - both airbags (1, 2) can be triggered independently of one another, - a control device, which is configured to control both airbags (1, 2), and - the airbag system is designed such that the second airbag can be triggered without the first airbag being triggered, characterised in that - the control device is designed to send to the airbag system a signal for triggering, wherein - the control device is configured to detect a seat position of a vehicle occupant and - the control device is configured in the case of a predetermined standard seat position to trigger only the second airbag when the vehicle occupant is located in the predetermined standard seat position, wherein the second airbag rests directly on a wall of the airbag module if the first airbag is not triggered
A method for controlling network congestion, wherein the method comprises: encapsulating an outer overlay network packet header in a transmit packet, wherein the overlay network packet header comprises an outer internet protocol, IP, header, and an explicit congestion notification, ECN, identifier is set in the outer IP header; decapsulating the overlay network packet header from an encapsulated reply packet; obtaining, from an IP header of the decapsulated reply packet through matching, an inner congestion identifier that is based on the ECN identifier; and if the decapsulated reply packet is a user datagram protocol, UDP, packet, forwarding the UDP packet to a preset slow channel or sending the UDP packet to a normal channel, wherein within a preset timeout period the UDP packet is forwarded to the preset slow channel or after the preset timeout period the UDP packet is sent to a normal channel; and wherein the forwarding the UDP packet to a preset slow channel comprises: dynamically adjusting a delay value of the preset slow channel based on a periodically estimated network congestion degree; and forwarding the UDP packet to the preset slow channel after the dynamic adjustment. encapsulating an outer overlay network packet header in a transmit packet, wherein the overlay network packet header comprises an outer internet protocol, IP, header, and an explicit congestion notification, ECN, identifier is set in the outer IP header; decapsulating the overlay network packet header from an encapsulated reply packet; obtaining, from an IP header of the decapsulated reply packet through matching, an inner congestion identifier that is based on the ECN identifier; and if the decapsulated reply packet is a user datagram protocol, UDP, packet, forwarding the UDP packet to a preset slow channel or sending the UDP packet to a normal channel, wherein within a preset timeout period the UDP packet is forwarded to the preset slow channel or after the preset timeout period the UDP packet is sent to a normal channel; and wherein the forwarding the UDP packet to a preset slow channel comprises: dynamically adjusting a delay value of the preset slow channel based on a periodically estimated network congestion degree; and forwarding the UDP packet to the preset slow channel after the dynamic adjustment. dynamically adjusting a delay value of the preset slow channel based on a periodically estimated network congestion degree; and forwarding the UDP packet to the preset slow channel after the dynamic adjustment.
A pacemaker comprising a pacing electrode, wherein the pacemaker is configured to: a. perform passively balanced voltage-based pacing, wherein during each pace: a pacing pulse having a predefined pacing voltage is delivered to the heart from the pacing electrode; and any residual charge between the pacing electrode and the heart is allowed to passively dissipate before a subsequent pacing pulse is delivered to the heart; b. perform capture verification, the capture verification including the following steps in sequence: delivering a response-evoking pulse having the predefined pacing voltage to the heart from the pacing electrode; performing a current-based active balancing step wherein an active balancing pulse is delivered to the heart from the pacing electrode, the active balancing pulse having: (a) a predefined current, and (b) a predefined pulse width, wherein the current and the pulse width are defined by measurements made following pulses occurring prior to the response-evoking pulse; measuring any evoked response provoked by the response-evoking pulse. a. perform passively balanced voltage-based pacing, wherein during each pace: a pacing pulse having a predefined pacing voltage is delivered to the heart from the pacing electrode; and any residual charge between the pacing electrode and the heart is allowed to passively dissipate before a subsequent pacing pulse is delivered to the heart; a pacing pulse having a predefined pacing voltage is delivered to the heart from the pacing electrode; and any residual charge between the pacing electrode and the heart is allowed to passively dissipate before a subsequent pacing pulse is delivered to the heart; b. perform capture verification, the capture verification including the following steps in sequence: delivering a response-evoking pulse having the predefined pacing voltage to the heart from the pacing electrode; performing a current-based active balancing step wherein an active balancing pulse is delivered to the heart from the pacing electrode, the active balancing pulse having: (a) a predefined current, and (b) a predefined pulse width, wherein the current and the pulse width are defined by measurements made following pulses occurring prior to the response-evoking pulse; measuring any evoked response provoked by the response-evoking pulse. delivering a response-evoking pulse having the predefined pacing voltage to the heart from the pacing electrode; performing a current-based active balancing step wherein an active balancing pulse is delivered to the heart from the pacing electrode, the active balancing pulse having: (a) a predefined current, and (b) a predefined pulse width, wherein the current and the pulse width are defined by measurements made following pulses occurring prior to the response-evoking pulse; (a) a predefined current, and (b) a predefined pulse width, measuring any evoked response provoked by the response-evoking pulse.
Channel system for a glassware forming machine, namely an I.S. machine, with sliding paths for molten glass gobs extending from a scoop channel, which can be pivoted about a vertical axis, into a parison mould at least via a guide plate assembly and an end channel assembly, wherein the guide plate assembly consists of at least one guide plate which has a plurality of channels intended for respectively guiding one glass gob, wherein the end channel assembly consists of at least one end channel, wherein the guide plate assembly and the end channel assembly are mounted on the machine frame of the I.S. machine, and wherein the guide plate assembly and the end channel assembly respectively consist of a first assembly, which is directly mounted on the machine frame, and a second assembly which is configured as a direct carrier of the guide plate or the end channel, characterised in that the first assemblies are provided with a standardised interface intended for connecting the second assemblies, in that the second assemblies are designed as easily replaceable assemblies which are respectively provided with an interface for connection to the first assembly and intended and configured for a conversion from a single-mould operation, double-mould operation to a triple-mould or multi-mould operation and vice versa, in that the second assembly of the guide plate assembly consists of a guide plate unit which is replaceably mounted on the first assembly of the guide plate assembly and consists of two lateral carrying sections (31, 32), between which at least one guide plate is held.
A receiver for Coherent self-homodyne detection which comprises: a polarization splitter that is adapted to split an incoming signal R in two orthogonal components, the two orthogonal components comprising a first component Rx and a second component Ry; a first splitter that is adapted to separate the first component Rx into two separated first components Rx' and the second component Ry into two separated second components Ry'; a 90 degree polarization rotor that is adapted to rotate the polarization of one of the separated first component Rx' by 90 degrees to obtain a polarization controlled separated first component Rx"; a hybrid detector that is adapted to couple the polarization controlled separated first component Rx" and the separated second component Ry', and is adapted to output a first electrical signal Ri and a second electrical signal Rq, the first electrical signal Ri being an in-phase mix between the components Rx" and Ry' as the real part of the product between Rx" and the conjugate of Ry', the second electrical signal Rq being an in-quadrature mix between the components Rx" and Ry' as the imaginary part of the product between Rx" and the conjugate of Ry'; a first balanced detector that is adapted to detect the other separated first components Rx' and the other separated second components Ry' and is adapted to output a third electrical signal Rd; and a processor that receives the first electrical signal Ri, the second electrical signal Rq and the third electrical signal Rd and reconstruct an original information signal Rs. a polarization splitter that is adapted to split an incoming signal R in two orthogonal components, the two orthogonal components comprising a first component Rx and a second component Ry; a first splitter that is adapted to separate the first component Rx into two separated first components Rx' and the second component Ry into two separated second components Ry'; a 90 degree polarization rotor that is adapted to rotate the polarization of one of the separated first component Rx' by 90 degrees to obtain a polarization controlled separated first component Rx"; a hybrid detector that is adapted to couple the polarization controlled separated first component Rx" and the separated second component Ry', and is adapted to output a first electrical signal Ri and a second electrical signal Rq, the first electrical signal Ri being an in-phase mix between the components Rx" and Ry' as the real part of the product between Rx" and the conjugate of Ry', the second electrical signal Rq being an in-quadrature mix between the components Rx" and Ry' as the imaginary part of the product between Rx" and the conjugate of Ry'; a first balanced detector that is adapted to detect the other separated first components Rx' and the other separated second components Ry' and is adapted to output a third electrical signal Rd; and a processor that receives the first electrical signal Ri, the second electrical signal Rq and the third electrical signal Rd and reconstruct an original information signal Rs.
A monoazo colorant for coloring an ophthalmic lens represented by a general formula: wherein, X represents a group of atoms that forms a naphthalene ring, an anthracene ring or a benzocarbazole ring together with a benzene ring linking to X; Y 1 and Y 2 each independently represent a single bond; Z 1 and Z 2 each independently represent at least one group selected from the group consisting of groups represented by formulae (i) to (vii): wherein, in the formula (vii), Z 3 represents at least one group selected from the group consisting of groups represented by the above formulae (i) to (vi); R 1 and R 2 each independently represent at least one group selected from the group consisting of an alkyl group having 1 to 5 carbon atoms, and an alkoxy group having 1 to 5 carbon atoms; m, n and r are each independently an integer of 0 to 2, wherein m, n and r are defined such that the total number of the groups represented by the above formulae (i) to (vi) is no less than 2 and no greater than 4; and p is an integer of 2; and q is an integer of 0 to 5, wherein the sum of p and m, and the sum of q and n are each no greater than 5, wherein in a case where m, n, r, p and q are each no less than 2, a plurality of Z 1 s, Z 2 s, Z 3 s, R 1 s and R 2 s are each independently as defined above.
A tailgate trim adapted to be connected to an outer side of a tailgate inner panel of a tailgate assembly and comprising at least a tailgate middle trim and a tailgate lower trim, characterized in that the tailgate middle trim comprises a lower-end connecting portion bent inward from a lower end of the tailgate middle trim, wherein the tailgate lower trim comprises an upper-end connecting portion bent inward from an upper end of the tailgate lower trim, and wherein the tailgate trim further comprises an adjusting component disposed on the upper-end connecting portion and/or the lower-end connecting portion and extending over at least a part of the transverse length of the tailgate trim, such that a vertical gap between the tailgate middle trim and the tailgate lower trim remains uniform.
An image intensifier sensor for acquiring, amplifying and displaying images and comprising a vacuum envelope, said image intensifier sensor comprising: - a photocathode arranged for releasing photoelectrons into said vacuum envelope upon electromagnetic radiation acquired from said images which impinges said photocathode; - an anode, spaced apart from and in facing relationship with said photocathode, arranged for receiving said photoelectrons and converting said photoelectrons for displaying said images on the basis thereof; and - a power supply unit for providing power to said image intensifier sensor; wherein said image intensifier sensor further comprises potting material, characterized in that said potting material comprises a light-weight potting material, wherein said light-weight potting material comprises a foam compound (310", 330"). - a photocathode arranged for releasing photoelectrons into said vacuum envelope upon electromagnetic radiation acquired from said images which impinges said photocathode; - an anode, spaced apart from and in facing relationship with said photocathode, arranged for receiving said photoelectrons and converting said photoelectrons for displaying said images on the basis thereof; and - a power supply unit for providing power to said image intensifier sensor; wherein said image intensifier sensor further comprises potting material, characterized in that said potting material comprises a light-weight potting material, wherein said light-weight potting material comprises a foam compound (310", 330").
Mechanical timepiece movement, comprising an energy source able to provide energy via a gear train to an oscillator comprising a balance as regulating organ, characterized in that the timepiece movement comprises switching organs able to switch between two modes of operation, in one of which the ratio of the gearing between the energy source and a wheel of the gear train is different from the other mode of operation, these switching organs enabling a reduction of the torque provided to the oscillator for the benefit of the power reserve.
Method for monitoring an electrically conductive object which is cathodically protected against corrosion, comprising the steps of: recording a time curve of a pipe current and of a switch-on potential and optionally also of a structure-borne noise of the object, filtering the recorded pipe current and the recorded switch-on potential and optionally the recorded structure-borne noise in each case by means of at least one band-pass filter (34a1-34a3; 34b1-34b3; 34c1-34c3) of which the passband corresponds to the frequency range of a contact in the form of a galvanic ground connection, and evaluating the filtered recorded pipe current and the filtered recorded switch-on potential and optionally the filtered recorded structure-borne noise, correlating the recorded pipe current with the recorded switch-on potential, and evaluating the correlation between the recorded pipe current and the recorded switch-on potential, creating at least one statistic of the recorded pipe current and of the recorded switch-on potential over a predetermined period of time (t1, t2), and evaluating the statistic of the recorded pipe current and the statistic of the recorded switch-on potential. recording a time curve of a pipe current and of a switch-on potential and optionally also of a structure-borne noise of the object, filtering the recorded pipe current and the recorded switch-on potential and optionally the recorded structure-borne noise in each case by means of at least one band-pass filter (34a1-34a3; 34b1-34b3; 34c1-34c3) of which the passband corresponds to the frequency range of a contact in the form of a galvanic ground connection, and evaluating the filtered recorded pipe current and the filtered recorded switch-on potential and optionally the filtered recorded structure-borne noise, correlating the recorded pipe current with the recorded switch-on potential, and evaluating the correlation between the recorded pipe current and the recorded switch-on potential, creating at least one statistic of the recorded pipe current and of the recorded switch-on potential over a predetermined period of time (t1, t2), and evaluating the statistic of the recorded pipe current and the statistic of the recorded switch-on potential.
A composite structural component for safely housing and protecting electronics or a payload, comprising: a casing; a lattice structure; wherein the lattice structure is disposed about at least a portion of the casing (220, 230); wherein the lattice structure and the casing are formed of a polymeric material; characterized in that said composite structural component further comprises a sealant sealing the porosity of the casing and lattice structure, wherein the sealant provides sufficient watertight integrity to the composite structural component in an underwater operating environment. a casing; a lattice structure; wherein the lattice structure is disposed about at least a portion of the casing (220, 230); wherein the lattice structure and the casing are formed of a polymeric material; characterized in that said composite structural component further comprises a sealant sealing the porosity of the casing and lattice structure, wherein the sealant provides sufficient watertight integrity to the composite structural component in an underwater operating environment.