Abstract: A cable connector includes a contact module, wires and grounding bars. The contact module includes a pair of subunits commonly sandwiching a metallic shielding plate. Each subunit includes contacts integrally formed within an insulator, the contacts includes a plurality of differential-pair contacts and grounding contacts alternately arranged with each other. Each contact includes a front contacting section and a rear tail section, the tail sections of the grounding contacts being unified with a transverse bar. Each wire has a pair of inner conductors respectively soldered to the tail sections of the corresponding differential-pair contacts, and an outer braiding layer surrounding the pair of inner conductors and mechanically and electrically connected to the transverse bar. Each grounding bar includes a plurality of rear tabs respectively connected to the braiding layers, and a plurality of front tabs respectively connected to the tail sections of the corresponding grounding contacts.

Abstract: A high density edge connector that provides robust operation and good signal integrity. The connector is configurable to have sections tailored for high speed signals, which may be differential, or low speed signals. The connector may be assembled from signal terminals and ground terminals, either of which may be mounted within an insulative housing of the connector at any location along a row aligned with a slot of a mating interface. Shield members or lossy members may optionally be included for high speed segments, either or both of which may be electrically coupled to the ground terminals. Insertion and retention force may be limited, despite a dense array of contacts pressing on a card inserted into the connector by shaping the portions of the signal or ground contacts that act as beams generating that force. Such force may be limited with twists in the beams and/or splitting the beam portions.

Abstract: An aerosol-generating article for an aerosol-generating device having a heating element, is provided, the article including: a rod of aerosol-generating substrate; and a heat control component disposed downstream of the rod of aerosol-generating substrate and including a meltable element arranged within the heat control component such that one or more longitudinal airflow channels are provided through the heat control component, and the meltable element is configured to melt when heated above a threshold temperature such that upon melting of the meltable element the one or more longitudinal airflow channels through the heat control component are blocked such that airflow through the aerosol-generating article is substantially prevented. An aerosol-generating system including the aerosol-generating article and an aerosol-generating device is also provided.

Abstract: An electrically operated aerosol-generating system is provided, including: a heating element configured to heat an aerosol-forming substrate proximate to the heating element; a power supply; and electric circuitry in communication with the element and the power supply, and configured to regulate the supply of power during a plurality of discrete heating cycles in response to user inputs, determine a maximum electrical resistance of the heating element during each heating cycle, calculate a rolling average value of the resistance for n preceding heating cycles, n being an integer greater than 1, compare the resistance with the calculated value, determine an adverse condition when the resistance is greater than the calculated value by more than a threshold value, the threshold value being stored in the memory, and control the power supplied based on whether there is the adverse condition or to provide an indication based on whether there is the adverse condition.

Abstract: A shielding shell used to at least partially surround signal terminals includes a first side wall, a second side wall and a third side wall. The second side wall connects the first side wall and the third side wall. The first side wall and the third side wall are disposed face to face. An end of at least one of the first side wall, the second side wall and the third side wall includes a deflection portion bent inwardly. The deflection portion is used to guide insertion of the shielding shell into a mating connector. As a result, a better shielding effect on the signal terminals can be provided. Besides, it is easy to guide insertion of the shielding shell into the mating connector.

Abstract: A reclosable cartridge assembly (10) for use in an aerosol-generating system comprises: a cartridge (12) extending longitudinally between end walls (22, 26); a housing (30, 32) enclosing the cartridge (12) and comprising: an upstream portion with an end wall (22) comprising an opening (42); and a downstream housing portion (32) with an end wall comprising an opening (44). One of the housing portions (30, 32) is rotatably fitted onto the cartridge (12). One of the cartridge end walls (22, 26) comprises a rupturable portion (38, 40) separable from the remainder of the end wall to expose an opening (42, 44) in the end wall. The rotatable housing portion (30, 32) is adapted to engage the rupturable portion (38, 40) such that, upon rotation from a storage position to a dispensing position, the housing portion (30, 32) breaks off the rupturable portion (38, 40) and exposes the opening (42, 44) in the end wall.

Abstract: An extendable electrical outlet enclosure with a tubular main body, a bezel, a cap, at least one extension tube, and a back plate. The tubular main body has a first end, a second end, and a wall extending between the first end and second end. The tubular main body also has an electrical device support that extends inward from the wall and defines a separation between an electrical plug section and a wiring section. The bezel surrounds an opening in the main body at the first end and allows the cap to removably mount to the electrical enclosure. The at least one extension tube attaches to the tubular main body at the second end and has a leading end, a trailing end, and an outer wall extending between the leading end and the trailing end. The back plate couples with the at least one extension tube at the trailing end.

Abstract: An electrical connector includes an insulating body having a mating slot and multiple accommodating slots are in communication with the mating slot. Multiple terminals are accommodated in the accommodating slots. The terminals include ground terminals. Each terminal includes a connecting portion, an elastic arm, a tail portion, and an extending portion located between the connecting portion and the tail portion. The extending portion of each terminal extends obliquely downward and backward from the connecting portion. A grounding member is provided on the insulating body. The grounding member has a multiple upper and lower extending arms. A length of each upper extending arm is shorter than a length of each lower extending arm in the front-rear direction. The upper and lower extending arms respectively abut the ground terminals, thus shortening the transmission paths of the terminals. The grounding member and the ground terminals are in stable connection, thus reducing the resonance.

Abstract: Input/output (I/O) connectors (1) for conducting data at high data rates, (e.g. 112 gigabits per second or more) are provided with protective shields (4, 5, 6) to provide increased mechanical strength and signal integrity.

Abstract: An electrical connector 1 contains a plurality of contacts 31, a first ground plate 32L and a second ground plate 32R facing the plurality of contacts 31 and arranged so as to be separated from each other in a ground plane parallel to the at least one plane in which the plurality of contacts 31 are arranged and an insulator 33 for holding the plurality of contacts 31, the first ground plate 32L and the second ground plate 32R in a state that the plurality of contacts 31, the first ground plate 32L and the second ground plate 32R are insulated from each other. Both of the first ground plate 32L and the second ground plate 32R include an extending portion extending from one of the first ground plate 32L and the second ground plate 32R toward the other one of the first ground plate 32L and the second ground plate 32R in the ground plane.

Abstract: A contact module includes a frame assembly having a leadframe and a dielectric frame partially encasing the leadframe. The leadframe includes ground conductors each having a transition portion extending between a mating end configured to be mated to a mating connector and a terminating end configured to be terminated to one of a circuit board or a cable conductor. The dielectric frame includes dielectric material encasing at least a portion of each transition portion. Each mating end extends from the dielectric frame for connection with the mating connector. Each terminating end extends from the dielectric frame for connection with the circuit board or the cable conductor. The contact module includes resistive elements within the dielectric frame. Each resistive element is coupled in series with the transition portion of the corresponding ground conductor.

Abstract: A connector unit includes a contact module received within an insulative housing. The contact module includes an upper contact unit and a lower contacts unit stacked with each other. Each of the upper contact unit and the lower contact unit includes a front/outer contact part and a rear/inner contact part each including plural contacts integrally formed with plural insulative transverse bars via insert-molding. The contacts include plural differential pair signal contacts and plural grounding contacts alternately arranged with each other along a transverse direction. Plural grounding bars are attached to corresponding transverse bars, respectively, wherein each grounding bar include plural tabs mechanically and electrically connecting to the corresponding grounding contacts. Each grounding bar is equipped with a plastic attachment tie bar to cooperate with a corresponding transverse bar to sandwich the grounding bar therebetween for securement.

Abstract: A direct mate orthogonal connector for a high density of high speed signals. The connector may include right angle leadframe assemblies with signal conductive elements and ground shields held by a leadframe housing. High frequency performance may be achieved with members on the leadframe that transfer force between a connector housing, holding the leadframe assemblies, and a portion of the leadframe housing holding the signal conductive elements and the shields near their mounting ends. Core members may be inserted into the housing and mating ends of the conductive elements of ground shields may be adjacent the core members, enabling electrical and mechanical performance of the mating interface to be defined by the core members. The core members may incorporate insulative and lossy features that may be complex to form as part of the connector housing but may be readily formed as part of a separate core member.

Abstract: A floating quad connector assembly is designed to hold two pairs of simplex connecters in a quad formation and to permit the two pairs of connectors to float within the assembly, thereby rendering the quad connector assembly compatible with different quad adapters having different spacings between the two middle simplex ports. Also, a segmental switch module is configured to aggregate multiple category-rated connectors in an array formation while permitting the spacings between the connectors to float, thereby rendering the switch module compatible with port arrays of different port-to-port spacings.

Abstract: In various implementations, a raceway may be provided that is capable of providing power and/or data connectivity to items (e.g., devices, articles of furniture, etc.) coupled to the raceway. The raceway may be low profile. The raceway may be disposed on floor and/or under floor. The raceway may include an integrated power housing. The raceway may include segments that are selected, as desired for an application configuration, and that are coupleable to each other or other components of the raceway (e.g., nodes, joints, etc.). The housing of component(s) of the raceway may include a base and wall(s) with at least curved section and at least one straight section.

Abstract: An electrical connector mountable to a substrate (e.g. a Printed Circuit Board, PCB) can include a terminal housing having a front wall and an opposing back wall. An opening is provided in the front wall for receiving a plug inside the terminal housing, opposing side walls, and a top wall and an opposing bottom wall. The bottom wall has an inner surface facing the inside of the terminal housing and an outer surface facing away from the inside of the terminal housing. The outer surface (can have at least two retention pins projecting from the outer surface for being inserted into corresponding holes in the PCB. A first retention pin can be positioned on the outer surface so as to be arranged asymmetrically with respect to a second retention pin.

Abstract: Electrical connectors for very high speed signals, including signals at or above 112 Gbps. Effectiveness of shielding along the signal paths through the mating electrical connectors may be enhanced through the use of one or more techniques, including enabling two-sided shielding, connections between shield members and between shield members and grounded structures of printed circuit boards to which the connectors are mounted, and selective positioning of lossy material. Such techniques may be simply and reliably implemented in high density connector using one or more techniques. An electrical connector may include core members held by a housing together with leadframe assemblies attached to the core members. The core members may include features that would be difficult to mold in a housing and may include both shields and lossy materials in locations that would be difficult to incorporate in a leadframe assembly.

Abstract: A terminal module includes a number of conductive terminals and an insulating frame. The conductive terminal includes a contact portion, a connection portion and a transition portion connected to the contact portion. The conductive terminals include differential signal terminals, a first ground terminal and a second ground terminal. The contact portions of the differential signal terminals and the connection portions of the differential signal terminals are provided separately. As a result, the structure of the contact portions and the connection portions are simplified for easy manufacturing. The disclosure also discloses a backplane connector having the terminal module.

Abstract: Electrical connectors for very high speed signals, including signals at frequencies at or above 112 GHz, with high density. Such connectors may be formed with fine features molded into portions of the connector housing to support closely spaced signal conductors. The signal conducts may nonetheless be accurately positioned, which leads to uniform impedance and other electrical characteristics that enable high frequency operation through the use of skeletal members that restrain bowing and twisting of housing components that position, directly or indirectly, the signal conductors. The skeletal members may be simply incorporated into the housing components by stamping a metal skeleton from a metal sheet in conjunction with one or more carrier strips. The housing component may be overmolded around the skeleton and then severed from the carrier strips.

Abstract: The present disclosure provides an electrical connector comprising a connector body, a plurality of signal terminals, and a cover. The connector body comprises a plugging slot, a cover accommodating notch, and a plurality of signal terminal slots. The plurality of the signal terminal slots is disposed between the plugging slot and the cover accommodating notch. The cover accommodating notch communicates with the plugging slot through the plurality of signal terminal slots. The cover accommodating notch comprises two opposite sidewalls. An abutting member is disposed on one side of the sidewall. A limiting block is disposed at one end of each of the sidewalls away from an end surface of the cover accommodating notch. The plurality of signal terminals are respectively disposed in the corresponding signal terminal slots. The cover is disposed in the cover accommodating notch and covers the plurality of the signal terminals.