mhurhangee/patent-ind-claim-en huggingface dataset:
A plug-in unit configured to be coupled to a busway, the plug-in unit comprising: a housing configured to be secured to the busway; an electrical coupling assembly coupled to the housing and configured to move between an uncoupled position in which the plug-in unit is uncoupled to the busway and a coupled position in which the plug-in unit is electrically coupled to the busway, wherein the electrical coupling assembly includes movable electrical jaws configured to engage the busway to provide an electrical connection between the busway and the plug-in unit; an actuator assembly coupled to the housing and the electrical coupling assembly , the actuator assembly being configured to move the jaws of the electrical coupling assembly between the uncoupled and coupled positions, characterized in that the electrical coupling assembly further comprises: a guide mounted on the housing, the guide including two side walls, each side wall of the two side walls having a plurality of slots; and a jaws housing that is movably coupled to the guide via a plurality of posts that extend through the plurality of slots and are mounted on the jaws housing , the jaws being mounted on the jaws housing and configured to move when the jaws housing is moved. a housing configured to be secured to the busway; an electrical coupling assembly coupled to the housing and configured to move between an uncoupled position in which the plug-in unit is uncoupled to the busway and a coupled position in which the plug-in unit is electrically coupled to the busway, wherein the electrical coupling assembly includes movable electrical jaws configured to engage the busway to provide an electrical connection between the busway and the plug-in unit; an actuator assembly coupled to the housing and the electrical coupling assembly , the actuator assembly being configured to move the jaws of the electrical coupling assembly between the uncoupled and coupled positions, characterized in that the electrical coupling assembly further comprises: a guide mounted on the housing, the guide including two side walls, each side wall of the two side walls having a plurality of slots; and a jaws housing that is movably coupled to the guide via a plurality of posts that extend through the plurality of slots and are mounted on the jaws housing , the jaws being mounted on the jaws housing and configured to move when the jaws housing is moved. a guide mounted on the housing, the guide including two side walls, each side wall of the two side walls having a plurality of slots; and a jaws housing that is movably coupled to the guide via a plurality of posts that extend through the plurality of slots and are mounted on the jaws housing , the jaws being mounted on the jaws housing and configured to move when the jaws housing is moved.
A superconducting reciprocal quantum logic, RQL, cell circuit comprising: a decision loop comprising: a magnetic Josephson junction, MJJ, configured to set a digital state as one of a first logic state and a second logic state based on write signals provided on write inputs; a secondary inductor of a selection input transformer through which an RQL-compliant read selection signal is provided to the decision loop from a read selection Josephson transmission line, JTL ; and an escape Josephson junction, JJ, (JJ ESC ) configured to trigger or not to trigger so as to block an RQL-compliant read data signal from propagating to an output JTL (JTL 1 ) or to act as a superconducting short to pass the read data signal to the output JTL (JTL 1 ), respectively, based on bias conditions established by the digital state and the read selection signal, wherein the decision loop is configured to store the digital state and to readout an RQL-compliant logical output signal as the logical AND of the read data signal and the logical inversion of the logical AND of the digital state and the read selection signal. a decision loop comprising: a magnetic Josephson junction, MJJ, configured to set a digital state as one of a first logic state and a second logic state based on write signals provided on write inputs; a secondary inductor of a selection input transformer through which an RQL-compliant read selection signal is provided to the decision loop from a read selection Josephson transmission line, JTL ; and an escape Josephson junction, JJ, (JJ ESC ) configured to trigger or not to trigger so as to block an RQL-compliant read data signal from propagating to an output JTL (JTL 1 ) or to act as a superconducting short to pass the read data signal to the output JTL (JTL 1 ), respectively, based on bias conditions established by the digital state and the read selection signal, a magnetic Josephson junction, MJJ, configured to set a digital state as one of a first logic state and a second logic state based on write signals provided on write inputs; a secondary inductor of a selection input transformer through which an RQL-compliant read selection signal is provided to the decision loop from a read selection Josephson transmission line, JTL ; and an escape Josephson junction, JJ, (JJ ESC ) configured to trigger or not to trigger so as to block an RQL-compliant read data signal from propagating to an output JTL (JTL 1 ) or to act as a superconducting short to pass the read data signal to the output JTL (JTL 1 ), respectively, based on bias conditions established by the digital state and the read selection signal, wherein the decision loop is configured to store the digital state and to readout an RQL-compliant logical output signal as the logical AND of the read data signal and the logical inversion of the logical AND of the digital state and the read selection signal.
Household refrigeration appliance with an interior , which is delimited by walls of an inner container , and with at least one container for accommodating foodstuffs, which is arranged in a displaceable manner in the interior , wherein a carrier is mounted in a displaceable manner in the interior and the container is arranged on the carrier such that it can be released in a non-destructive manner and is motion-coupled to the carrier for the purpose of displacement, wherein a motion coupling, viewed in the depth direction of the household refrigeration appliance , is embodied at least in a front region of the container and at least in a front region of the carrier , characterised in that the container has a depression in the front region at the base thereof, into which depression an engagement element , which protrudes upwardly and is elevated in a front region of the carrier , engages in the coupled state.
A process for preparing halogenated alkanes, the process comprising: a. in a reactor, forming a reaction mixture having a liquid phase, wherein the reaction mixture comprises: a halogenated methane comprising at least one chlorine atom; an alkene, a halogenated alkene, or combinations thereof; a ligand; and at least one metal, metal alloy, metal salt, or combinations thereof; wherein the alkene, halogenated alkene, or combinations thereof is at least partially absorbed into the liquid phase; b. optionally heating, stirring, or both heating and stirring the reaction mixture; and c. producing at least one halogenated alkane and heavy by-products; wherein the alkene, halogenated alkene, or combinations thereof is absorbed into the liquid phase by circulating the liquid phase through an absorption device; wherein the absorption device comprises a packed column, a trayed column, or combinations thereof; wherein a liquid distributor is optionally used in combination with the absorption device; and wherein the liquid feed to the absorption device comprises a fresh liquid feed, a recycle liquid feed comprising a fresh liquid feed, a recycle liquid feed from the reactor, a recycle feed from the absorber, or combinations thereof. a. in a reactor, forming a reaction mixture having a liquid phase, wherein the reaction mixture comprises: a halogenated methane comprising at least one chlorine atom; an alkene, a halogenated alkene, or combinations thereof; a ligand; and at least one metal, metal alloy, metal salt, or combinations thereof; wherein the alkene, halogenated alkene, or combinations thereof is at least partially absorbed into the liquid phase; b. optionally heating, stirring, or both heating and stirring the reaction mixture; and c. producing at least one halogenated alkane and heavy by-products; wherein the alkene, halogenated alkene, or combinations thereof is absorbed into the liquid phase by circulating the liquid phase through an absorption device; wherein the absorption device comprises a packed column, a trayed column, or combinations thereof; wherein a liquid distributor is optionally used in combination with the absorption device; and wherein the liquid feed to the absorption device comprises a fresh liquid feed, a recycle liquid feed comprising a fresh liquid feed, a recycle liquid feed from the reactor, a recycle feed from the absorber, or combinations thereof.
Progressivity device for a clutch friction disk, comprising: a support flange with a rotation central axis (X) in which an annular central part is suitable for cooperating with a torsional vibration damper and an external part carries progressivity blades , said progressivity blades extending circumferentially between a cooperation area of the external part of the support flange and a free end , and friction pads placed circumferentially on the two faces of the support flange , which friction pads are distributed over the external part of the support flange, each friction pad having the shape of an angular segment, characterized in that , on one of the faces of the support flange, each of the friction pads is fixed by two adjacent progressivity blades and each friction pad covers the support flange cooperation area located between the two progressivity blades . a support flange with a rotation central axis (X) in which an annular central part is suitable for cooperating with a torsional vibration damper and an external part carries progressivity blades , said progressivity blades extending circumferentially between a cooperation area of the external part of the support flange and a free end , and friction pads placed circumferentially on the two faces of the support flange , which friction pads are distributed over the external part of the support flange, each friction pad having the shape of an angular segment, characterized in that , on one of the faces of the support flange, each of the friction pads is fixed by two adjacent progressivity blades and each friction pad covers the support flange cooperation area located between the two progressivity blades .
A logarithmic amplifier, comprising: an amplifier circuit configured to receive an input signal at an amplifier input, oscillate the input signal, and generate a first output signal at an amplifier output, wherein the input signal includes a modulated signal to be detected and electrical noise; a feedback circuit coupled to the amplifier output and the amplifier input and configured to establish a 180 degree phase shift between the input signal and the first output signal, the feedback circuit including a single capacitor configured to maintain oscillation of the input signal; a parallel resonant circuit connected to the amplifier output and configured to cause the amplifier circuit to resonate at or around a center frequency and generate the first output signal, the first output signal including a regenerated copy of the input signal; and a controller circuit connected to the amplifier input and configured to cyclically terminate oscillation of the input signal each time a pre-determined input threshold level is reached, the controller circuit including a low pass filter configured to generate a second output signal having a repetition frequency. an amplifier circuit configured to receive an input signal at an amplifier input, oscillate the input signal, and generate a first output signal at an amplifier output, wherein the input signal includes a modulated signal to be detected and electrical noise; a feedback circuit coupled to the amplifier output and the amplifier input and configured to establish a 180 degree phase shift between the input signal and the first output signal, the feedback circuit including a single capacitor configured to maintain oscillation of the input signal; a parallel resonant circuit connected to the amplifier output and configured to cause the amplifier circuit to resonate at or around a center frequency and generate the first output signal, the first output signal including a regenerated copy of the input signal; and a controller circuit connected to the amplifier input and configured to cyclically terminate oscillation of the input signal each time a pre-determined input threshold level is reached, the controller circuit including a low pass filter configured to generate a second output signal having a repetition frequency.
Arrangement of a fluid tank on a vehicle , in particular motor vehicle, comprising: - a tension strap with a first and a second end, - a vehicle-side bearing and - an elastomer element , wherein the tension strap holds the fluid tank in a cavity of an underbody of the vehicle , wherein the vehicle-side bearing is designed for fastening the tension strap with the first end to the vehicle , and the elastomer element is arranged between the tension strap and the vehicle-side bearing , characterized in that the second end of the tension strap is secured to the vehicle by means of a screw connection , and wherein the elastomer element rests on the vehicle-side bearing , wherein the first end of the tension strap is arranged so as to be displaceable via the elastomer element in relation to the vehicle-side bearing , and wherein the forces between the elastomer element and the vehicle-side bearing are transmitted only via a frictional connection, and wherein the vehicle-side bearing has an inclination (φ) in relation to a horizontal (x). - a tension strap with a first and a second end, - a vehicle-side bearing and - an elastomer element , wherein the tension strap holds the fluid tank in a cavity of an underbody of the vehicle , wherein the vehicle-side bearing is designed for fastening the tension strap with the first end to the vehicle , and the elastomer element is arranged between the tension strap and the vehicle-side bearing , characterized in that the second end of the tension strap is secured to the vehicle by means of a screw connection , and wherein the elastomer element rests on the vehicle-side bearing , wherein the first end of the tension strap is arranged so as to be displaceable via the elastomer element in relation to the vehicle-side bearing , and wherein the forces between the elastomer element and the vehicle-side bearing are transmitted only via a frictional connection, and wherein the vehicle-side bearing has an inclination (φ) in relation to a horizontal (x).
A compound which is N -(cyanomethyl)-4-(2-(4-morpholinophenylamino)pyrimidin-4-yl)benzamide dihydrochloride monohydrate Form II, characterized by : (A) crystals having unit cell parameters at T=100°K of: a =10.2837 Å, b = 10.4981 Å, c = 11.5143 Å, α = 83.297 °, β = 87.649 °, γ = 67.445 °, and a triclinic P-1 space group, or (B) an X-ray powder diffraction (XRPD) pattern having peaks at 7.7°, 19.3°, 24.0°, 25.7°, and 29.6° 2-θ ± 0.2° 2-θ as determined using copper radiation (Cu Kα, λ = 1.5418 Å). (A) crystals having unit cell parameters at T=100°K of: a =10.2837 Å, b = 10.4981 Å, c = 11.5143 Å, α = 83.297 °, β = 87.649 °, γ = 67.445 °, and a triclinic P-1 space group, or (B) an X-ray powder diffraction (XRPD) pattern having peaks at 7.7°, 19.3°, 24.0°, 25.7°, and 29.6° 2-θ ± 0.2° 2-θ as determined using copper radiation (Cu Kα, λ = 1.5418 Å).
A detection unit to discover cascaded multi-connectivity scenarios in a communication network , wherein the cascaded multi-connectivity scenarios comprises possible combinations of multi-connectivity connections as i) a multi-connectivity end-to-end implementation, ii) a multi-connectivity implementation between a user equipment "UE" and a provider, which provides an interface towards services in the internet; and/or iii) a multi-connectivity implementation between a residential gateway "RG" and a provider connecting UE and service; wherein the combination of the different multi-connectivity approaches leads to a chain of multi-connectivity units in a row or to a stacked arrangement if the multi-connectivity solutions work on a different layer; the detection unit comprises an interface configured to communicate with the communication network , wherein one or multiple multi-connectivity devices of the network are designed to send type-of-transmission signals to the interface, wherein the type-of-transmission signals comprise information about the used multi-connectivity technique; an evaluation unit programmed with a cascaded multi-connectivity detection algorithm, wherein the evaluation unit is provided with the type-of-transmission signals and analyzes the occurrence and/or a possible occurrence of cascaded multi-connectivity usage within the communication network based on the type-of-transmission signals. wherein the cascaded multi-connectivity scenarios comprises possible combinations of multi-connectivity connections as i) a multi-connectivity end-to-end implementation, ii) a multi-connectivity implementation between a user equipment "UE" and a provider, which provides an interface towards services in the internet; and/or iii) a multi-connectivity implementation between a residential gateway "RG" and a provider connecting UE and service; wherein the combination of the different multi-connectivity approaches leads to a chain of multi-connectivity units in a row or to a stacked arrangement if the multi-connectivity solutions work on a different layer; the detection unit comprises an interface configured to communicate with the communication network , wherein one or multiple multi-connectivity devices of the network are designed to send type-of-transmission signals to the interface, wherein the type-of-transmission signals comprise information about the used multi-connectivity technique; an evaluation unit programmed with a cascaded multi-connectivity detection algorithm, wherein the evaluation unit is provided with the type-of-transmission signals and analyzes the occurrence and/or a possible occurrence of cascaded multi-connectivity usage within the communication network based on the type-of-transmission signals.
A method for calibrating offset between a selected position in an overview image and a centre position in a detailed image, the overview image being captured by an overview camera and the detailed image being captured by a detailed view camera, these two cameras being different cameras, the method comprising: capturing the overview image by the overview camera; displaying the captured overview image including an overlay pattern presenting indicators of at least three suggested selection areas uniformly distributed around a centre point of the overview image; adjusting an orientation of the overlay pattern with respect to the centre point of the overview image; selecting a point in a selection area at a feature in the overview image; transforming coordinates representing the point into a pan angle and a tilt angle; panning and tilting the detailed view camera in accordance with the pan angle and the tilt angle; capturing the detailed image using the detailed view camera after the camera has been panned and tilted in accordance with the pan angle and the tilt angle; manually adjusting the pan angle and the tilt angle so that the feature at the selected point in the overview image is substantially in the centre of the image captured by the detailed view camera; storing information indicating the difference between the transformed pan and tilt angles and the adjusted pan and tilt angles as an offset value; repeating the steps of selecting a point, transforming coordinates, panning and tilting, capturing the detailed image, manually adjusting, and storing offset value for the other selection areas. capturing the overview image by the overview camera; displaying the captured overview image including an overlay pattern presenting indicators of at least three suggested selection areas uniformly distributed around a centre point of the overview image; adjusting an orientation of the overlay pattern with respect to the centre point of the overview image; selecting a point in a selection area at a feature in the overview image; transforming coordinates representing the point into a pan angle and a tilt angle; panning and tilting the detailed view camera in accordance with the pan angle and the tilt angle; capturing the detailed image using the detailed view camera after the camera has been panned and tilted in accordance with the pan angle and the tilt angle; manually adjusting the pan angle and the tilt angle so that the feature at the selected point in the overview image is substantially in the centre of the image captured by the detailed view camera; storing information indicating the difference between the transformed pan and tilt angles and the adjusted pan and tilt angles as an offset value; repeating the steps of selecting a point, transforming coordinates, panning and tilting, capturing the detailed image, manually adjusting, and storing offset value for the other selection areas.
A water jacket structure , comprising: a lower water jacket that is provided inside a cylinder head installed at the top of a cylinder block ; a discharge port that is provided at a rear end of the lower water jacket, for discharging cooling water; and an upper water jacket that communicates with the lower water jacket, and is provided on a side away from the cylinder block than the lower water jacket; wherein the lower water jacket includes, for each space between cylinders: a communication flow passage that communicates with the upper water jacket; and a reinforcing post formation part on which a reinforcing post is installed; wherein, in each space between the cylinders, the reinforcing post formation part is located on a downstream side of the communication flow passage in a flowing direction of the cooling water along a cylinder arrangement direction; and wherein the discharge port is located on the downstream side of the reinforcing post formation parts in the flowing direction of the cooling water along the cylinder arrangement direction. a lower water jacket that is provided inside a cylinder head installed at the top of a cylinder block ; a discharge port that is provided at a rear end of the lower water jacket, for discharging cooling water; and an upper water jacket that communicates with the lower water jacket, and is provided on a side away from the cylinder block than the lower water jacket; wherein the lower water jacket includes, for each space between cylinders: a communication flow passage that communicates with the upper water jacket; and a reinforcing post formation part on which a reinforcing post is installed; a communication flow passage that communicates with the upper water jacket; and a reinforcing post formation part on which a reinforcing post is installed; wherein, in each space between the cylinders, the reinforcing post formation part is located on a downstream side of the communication flow passage in a flowing direction of the cooling water along a cylinder arrangement direction; and wherein the discharge port is located on the downstream side of the reinforcing post formation parts in the flowing direction of the cooling water along the cylinder arrangement direction.