mhurhangee/ep-ind-claims huggingface dataset:
A child motion device comprising: a frame assembly configured to rest on a floor surface; a drive system defining an axis of rotation oriented vertically; and a support arm supported above the floor surface by the frame assembly and cantilevered from the axis of rotation, the support arm having a driven end coupled to and movable by the drive system, the drive system configured to pivotally reciprocate the support arm through a partial orbit around the axis of rotation, and the support arm configured to accept a child supporting device for movement with the support arm. a frame assembly configured to rest on a floor surface; a drive system defining an axis of rotation oriented vertically; and a support arm supported above the floor surface by the frame assembly and cantilevered from the axis of rotation, the support arm having a driven end coupled to and movable by the drive system, the drive system configured to pivotally reciprocate the support arm through a partial orbit around the axis of rotation, and the support arm configured to accept a child supporting device for movement with the support arm.
Power-supply control device for a radiofrequency ignition of a combustion engine, comprising an output interface for a control signal; characterized in that it comprises: - an interface for receiving measurement signals of operating parameters from a combustion engine; - a memory module storing relationships between the measurement signals and the frequency of an ignition control signal to be generated; - a module determining the frequency of an ignition control signal to be generated as a function of measurement signals received at the reception interface and of the relationships stored in the memory module; and - a module applying the ignition control signal to be generated at the determined frequency at the output interface. - an interface for receiving measurement signals of operating parameters from a combustion engine; - a memory module storing relationships between the measurement signals and the frequency of an ignition control signal to be generated; - a module determining the frequency of an ignition control signal to be generated as a function of measurement signals received at the reception interface and of the relationships stored in the memory module; and - a module applying the ignition control signal to be generated at the determined frequency at the output interface.
A computer system comprising a plurality of processor units (A, B) that are synchronous and that access resources in non-concurrent manner in order to execute a harmonic set of tasks that are numbered ( i), and that are ordered in such a manner that the shorter the period of a task, the higher its priority, the system being characterized in that it comprises a task interrupt switch device having an input for receiving a common time base, outputs (12.A, 12.B) each connected to a respective one of the processor units (A, B), registers (13.A, 13.B) each corresponding to a respective output, reinitializable counters (14.A, 14.B) each corresponding to a respective output, and a control unit arranged: to reissue each task interrupt to the output (12.A, 12.B) for which the register (13.A, 13.B) has the greatest value, and in the event of equality, to the output (12.A, 12.B) for which the counter (14.A, 14.B) has the smallest value; to store in each register the number ( i) of the task currently executing on the processor unit (A, B) connected to the corresponding output; and each time a task interrupt is reissued on one of the outputs (12.A, 12.B), to increment the corresponding counter (14.A, 14.B) by 1.
A method for configuring a path for intercepting user data, comprising: acquiring, by a control plane entity GW-C, an identifier information of a target to be intercepted and an intercepting interface address, wherein the intercepting interface address is an X3 interface address of an intercepting entity; configuring, by the GW-C, data path configuration information on a user plane entity GW-U according to the identifier information of the target to be intercepted and the intercepting interface address, wherein the data path configuration information comprises an IP address of the target to be intercepted and a connection identifier for a connection between the GW-U and the intercepting entity; sending, by the GW-C, the data path configuration information to the GW-U so that the GW-U establishes a path for data transmission; and initiating, by the GW-C, an establishment of an intercepting connection of an intercepting interface to an intercepting entity based on the intercepting interface address so as to transmit data of the target to be intercepted. acquiring, by a control plane entity GW-C, an identifier information of a target to be intercepted and an intercepting interface address, wherein the intercepting interface address is an X3 interface address of an intercepting entity; configuring, by the GW-C, data path configuration information on a user plane entity GW-U according to the identifier information of the target to be intercepted and the intercepting interface address, wherein the data path configuration information comprises an IP address of the target to be intercepted and a connection identifier for a connection between the GW-U and the intercepting entity; sending, by the GW-C, the data path configuration information to the GW-U so that the GW-U establishes a path for data transmission; and initiating, by the GW-C, an establishment of an intercepting connection of an intercepting interface to an intercepting entity based on the intercepting interface address so as to transmit data of the target to be intercepted.
A compound of Formula: or a pharmaceutically acceptable salt thereof, wherein: Ar 1 is phenyl substituted with 1-2 R 1a and 1-2 R 1b or 6-membered heteroaryl with 1-3 nitrogen atoms and substituted with 1-2 R 1a and 1-2 R 1b; Ar 2 is phenyl substituted with 1-4 R 2 or 6-membered heteroaryl with 1-3 nitrogen atoms and substituted with 1-4 R 2; Ar 3 is phenyl substituted with 0-4 R 3 or pyridinyl substituted with 0-4 R 3; R 1a is hydrogen or halo; R 1b is halo, haloalkyl, alkoxy, or haloalkoxy; R 2 is hydrogen, cyano, halo, alkyl, hydroxyalkyl, haloalkyl, cycloalkyl, alkoxy, or haloalkoxy; R 3 is cyano, halo, alkyl, alkoxy, hydroxyalkyl, alkoxyalkyl, or haloalkyl; and R 4 is alkyl or alkoxy. Ar 1 is phenyl substituted with 1-2 R 1a and 1-2 R 1b or 6-membered heteroaryl with 1-3 nitrogen atoms and substituted with 1-2 R 1a and 1-2 R 1b; Ar 2 is phenyl substituted with 1-4 R 2 or 6-membered heteroaryl with 1-3 nitrogen atoms and substituted with 1-4 R 2; Ar 3 is phenyl substituted with 0-4 R 3 or pyridinyl substituted with 0-4 R 3; R 1a is hydrogen or halo; R 1b is halo, haloalkyl, alkoxy, or haloalkoxy; R 2 is hydrogen, cyano, halo, alkyl, hydroxyalkyl, haloalkyl, cycloalkyl, alkoxy, or haloalkoxy; R 3 is cyano, halo, alkyl, alkoxy, hydroxyalkyl, alkoxyalkyl, or haloalkyl; and R 4 is alkyl or alkoxy.
A compound of formula wherein R is hydrogen and the bond between C-2 and C-3 together with the dotted line represents a double bond; or R is -CH 2 - and forms together with C-2 and C-3 a cyclopropane ring and the bond between C-2 and C-3 represents together with the dotted line a single bond. R is hydrogen and the bond between C-2 and C-3 together with the dotted line represents a double bond; or R is -CH 2 - and forms together with C-2 and C-3 a cyclopropane ring and the bond between C-2 and C-3 represents together with the dotted line a single bond.
A method of additively manufacturing an assembly, comprising: simultaneous additively manufacturing a component and a non-contact support that does not form a part of the component to a reception plate using a recoater blade which sweeps across the surface of the reception plate in a linear recoat direction, the component having an edge oriented with respect to the recoater blade direction, the support located adjacent the edge of the component; wherein the edge of the component faces towards and is oriented at an acute angle with respect to the recoater blade direction; further comprising orienting a windward side of the non-contact support to form a surface amenable to passage of the recoater blade along the recoater blade direction. simultaneous additively manufacturing a component and a non-contact support that does not form a part of the component to a reception plate using a recoater blade which sweeps across the surface of the reception plate in a linear recoat direction, the component having an edge oriented with respect to the recoater blade direction, the support located adjacent the edge of the component; wherein the edge of the component faces towards and is oriented at an acute angle with respect to the recoater blade direction; further comprising orienting a windward side of the non-contact support to form a surface amenable to passage of the recoater blade along the recoater blade direction.
A neonatal care system comprising: an enclosure configured to provide a microenvironment for a neonate; one or more physiological sensors configured to sense a plurality of physiological parameters of the neonate; one or more microenvironmental sensors configured to sense a plurality of microenvironmental parameters within the enclosure; at least one external environmental sensor configured to sense at least one external parameter outside the enclosure; a control system configured to: control the microenvironment based on a plurality of control settings; track at least one setting change to any of the control settings and a corresponding time of change; store at least one event and a corresponding event time for each event; generate a longitudinal log including each of the physiological parameters, the microenvironmental parameters, the external parameter, the at least one setting change, and the at least one event with respect to time; and generate a display based on the longitudinal log. an enclosure configured to provide a microenvironment for a neonate; one or more physiological sensors configured to sense a plurality of physiological parameters of the neonate; one or more microenvironmental sensors configured to sense a plurality of microenvironmental parameters within the enclosure; at least one external environmental sensor configured to sense at least one external parameter outside the enclosure; a control system configured to: control the microenvironment based on a plurality of control settings; track at least one setting change to any of the control settings and a corresponding time of change; store at least one event and a corresponding event time for each event; generate a longitudinal log including each of the physiological parameters, the microenvironmental parameters, the external parameter, the at least one setting change, and the at least one event with respect to time; and generate a display based on the longitudinal log. control the microenvironment based on a plurality of control settings; track at least one setting change to any of the control settings and a corresponding time of change; store at least one event and a corresponding event time for each event; generate a longitudinal log including each of the physiological parameters, the microenvironmental parameters, the external parameter, the at least one setting change, and the at least one event with respect to time; and generate a display based on the longitudinal log.
An electronic component having electrical contact pads (16, 18) for soldering onto a mounting board, said electrical contact pads (16, 18) arranged over a soldering area having a central portion and a peripheral portion surrounding said central portion, wherein said electrical contact pads (16, 18) include: - at least one first electrical contact pad (16a, 18a; 18; 180a; 18a) at said central portion of the soldering area, wherein said at least one first electrical contact pad at said central portion of the soldering area includes a radial extension extending over said peripheral portion of the soldering area, and - at least one second electrical contact pad (16b, 18b; 16; 160a, 160b; 160) at said peripheral portion of the soldering area, wherein said at least one second electrical contact pad (16; 160a, 160b; 160) is horseshoe-shaped and embraces said at least one first electrical contact pad (18; 180a, 180b; 18a, 18b), characterized in that said at least one horseshoe-shaped second electrical contact pad includes distal portions extending towards said radial extension of said at least one first electrical contact pad. - at least one first electrical contact pad (16a, 18a; 18; 180a; 18a) at said central portion of the soldering area, wherein said at least one first electrical contact pad at said central portion of the soldering area includes a radial extension extending over said peripheral portion of the soldering area, and - at least one second electrical contact pad (16b, 18b; 16; 160a, 160b; 160) at said peripheral portion of the soldering area, wherein said at least one second electrical contact pad (16; 160a, 160b; 160) is horseshoe-shaped and embraces said at least one first electrical contact pad (18; 180a, 180b; 18a, 18b), characterized in that said at least one horseshoe-shaped second electrical contact pad includes distal portions extending towards said radial extension of said at least one first electrical contact pad.
A media bed apparatus for a regenerative burner of a furnace, comprising: a media bed comprising refractory particles (17, 18), ducting for passing waste and combustion gases in succession through said bed to a burner and from a furnace; characterized in that the media bed apparatus further comprises means configured for periodically delivering a short pulse of a decontaminating gas into said bed, said pulse being of sufficient force to cause dislodgement of contaminants collected in said bed from said waste gas and having a high velocity and mass flow and a duration such that it can be applied to the bed at any stage of operation of the regenerative burner without interfering with burner operation. a media bed comprising refractory particles (17, 18), ducting for passing waste and combustion gases in succession through said bed to a burner and from a furnace; characterized in that the media bed apparatus further comprises means configured for periodically delivering a short pulse of a decontaminating gas into said bed, said pulse being of sufficient force to cause dislodgement of contaminants collected in said bed from said waste gas and having a high velocity and mass flow and a duration such that it can be applied to the bed at any stage of operation of the regenerative burner without interfering with burner operation.
A sample container for holding and transferring a liquid sample, the sample container comprising: an inlet configured to allow a liquid sample to enter a sample container; an outlet configured to allow one or more droplets of the liquid sample to exit the sample container by one or more focused acoustic ejections respectively; wherein the inlet and the outlet are in different locations; the sample container comprises at least one float configured to stratify the liquid sample into a plurality of components; and the at least one float is associated with a density corresponding to at least one component of the liquid sample. an inlet configured to allow a liquid sample to enter a sample container; an outlet configured to allow one or more droplets of the liquid sample to exit the sample container by one or more focused acoustic ejections respectively; wherein the inlet and the outlet are in different locations; the sample container comprises at least one float configured to stratify the liquid sample into a plurality of components; and the at least one float is associated with a density corresponding to at least one component of the liquid sample.
Pivot stud, in particular for sensor control in a vehicle, having a pivot member which has a first portion and a second portion, wherein a pivot head is arranged on the first portion of the pivot member, wherein the pivot member is produced from metal and the pivot head is produced from plastics material, and wherein on the first portion there is formed a securing region, on which the pivot head is arranged so as to be resistant to torsion and being pulled off, characterised in that the first portion is constructed at least partially in a hollow manner, in that the hollow first portion is compressed at the end side thereof with a stamp and in that the bead which is thereby produced acts an undercut on which the pivot head is arranged so as to be resistant to torsion and being pulled off.
A reaction propulsion device comprising at least: a main thruster with a propulsion chamber; a first feed circuit with a first turbopump comprising at least a turbine coupled to a pump in order to deliver a first propellant to the propulsion chamber of the main thruster; and a second feed circuit with a second turbopump likewise comprising at least a turbine coupled to a pump to deliver a second propellant to the propulsion chamber of the main thruster; wherein said propulsion chamber of the main thruster is a regenerative propulsion chamber, including a first heat exchanger and a second heat exchanger and said first feed circuit presenting, downstream from the pump of the first turbopump, a branch-off passing through the first heat exchanger and the turbine of the first turbopump; and characterized in that said second feed circuit presents, downstream from the pump of the second turbopump, a branch-off passing through the second heat exchanger and the turbine of the second turbopump; and in that it also includes at least one secondary thruster connected to said branch-offs (13, 14) downstream from the turbines (8a, 9a) of the first and second turbopumps (8, 9). a main thruster with a propulsion chamber; a first feed circuit with a first turbopump comprising at least a turbine coupled to a pump in order to deliver a first propellant to the propulsion chamber of the main thruster; and a second feed circuit with a second turbopump likewise comprising at least a turbine coupled to a pump to deliver a second propellant to the propulsion chamber of the main thruster; wherein said propulsion chamber of the main thruster is a regenerative propulsion chamber, including a first heat exchanger and a second heat exchanger and said first feed circuit presenting, downstream from the pump of the first turbopump, a branch-off passing through the first heat exchanger and the turbine of the first turbopump; and characterized in that said second feed circuit presents, downstream from the pump of the second turbopump, a branch-off passing through the second heat exchanger and the turbine of the second turbopump; and in that it also includes at least one secondary thruster connected to said branch-offs (13, 14) downstream from the turbines (8a, 9a) of the first and second turbopumps (8, 9).
A mask (100,200,300) for an additively manufactured part including a plurality of openings (106, 204) spaced in a surface of the part, the mask (100,200,300) comprising: an attachment ligament (120, 220); a first cover member including a first proximal end integrally coupled to the attachment ligament (120, 220) and a first distal end extending at least partially over a first portion of the plurality of openings (106, 204), the first distal end of the first cover member constructed to be, in use, separated from the part by a first spacing; a second cover member including a second proximal end integrally coupled to the attachment ligament (120, 220) and a second distal end extending at least partially over a second portion of the plurality of openings (106, 204), the second distal end of the second cover member constructed to be, in use, separated from the part by a second spacing; and a detachment member (152, 252, 352) extending from each of the first and second cover members (130, 140), characterized in that the attachment ligament (120,220) is the sole connection to the part; and the attachment ligament (120, 220) is configured to integrally couple to the part between the plurality of openings (106, 204) in a cantilever fashion, such that the mask (100,200,300) can be easily removed from the part. an attachment ligament (120, 220); a first cover member including a first proximal end integrally coupled to the attachment ligament (120, 220) and a first distal end extending at least partially over a first portion of the plurality of openings (106, 204), the first distal end of the first cover member constructed to be, in use, separated from the part by a first spacing; a second cover member including a second proximal end integrally coupled to the attachment ligament (120, 220) and a second distal end extending at least partially over a second portion of the plurality of openings (106, 204), the second distal end of the second cover member constructed to be, in use, separated from the part by a second spacing; and a detachment member (152, 252, 352) extending from each of the first and second cover members (130, 140), characterized in that the attachment ligament (120,220) is the sole connection to the part; and the attachment ligament (120, 220) is configured to integrally couple to the part between the plurality of openings (106, 204) in a cantilever fashion, such that the mask (100,200,300) can be easily removed from the part.
A washing machine comprising a control panel; a dispenser panel; a detergent dispenser and a housing which is arranged on the control panel and which receives the detergent dispenser together with the dispenser panel, wherein the detergent dispenser is coaxially centered to the dispenser panel, which is centered to the control panel; wherein two first centering members on each of the two opposite walls of the housing on the control panel, are positioned parallel to each other and two second centering members on each of the two side walls of the dispenser panel, are positioned parallel to each other, so as to align with the first centering members on the control panel, wherein two second contact surfaces are the surfaces of the second centering members facing outward, wherein a second gap is remaining between said second centering members; wherein a first gap between the first centering members is wider than the second gap between the second centering members; wherein the second centering members face the first centering members and are placed into the first gap between the first centering members., characterised by a third centering member on each side wall of the front frame of the detergent dispenser extending towards the dispenser panel, wherein the third centering members are configured to be inserted into the second gap between the pairs of second centering members located on both sides on the dispenser panel.