mhurhangee/ep-ind-claims huggingface dataset:
A plate heat exchanger comprising a plate package having a first end plate, a second end plate and a plurality of heat exchanger plates (p2-p11, 17) arranged between them, where the heat exchanger plates comprise a first side, a second side and a centre point through which an imaginary centre axis extends in a direction perpendicular to a plane of the heat exchanger plates, where the heat exchanger plates comprise a first port for a first medium, and at least a second port and a third port for a second medium, where a third sealing extending in a continuous ring is arranged on the second side to form a first heat transfer area and a second heat transfer area, where the second port is arranged in the first heat transfer area and the third port is arranged in the second heat transfer area, where the second heat transfer area is separated from the first heat transfer area, where a first sealing is arranged on the second side around the first port, and a second sealing is arranged on the second side at a circumference of the heat exchanger plates, where the first heat transfer area and the second heat transfer area is formed by the third sealing arranged between the first sealing and the second sealing, where the second heat transfer area is arranged for cooling the heat exchanger plates around the first port, where the plates (p1-p12) are arranged to alternating form a first interspace between them for the first medium, and alternating a second interspace between them for the second medium, and where the plates (p1-p12) are arranged to form a passage in the radial direction between the first ports and the circumference of the plates (p1-p12) in the first interspaces, so that the first medium can flow radially between the first ports and a position outside the circumference of the plates (p1-p12) in the first interspaces, wherein the heat exchanger is arranged to provide an outer flow in a first axial direction of the second medium through the second port and the first heat transfer area, and an inner flow in an opposite second axial direction of the second medium through the second heat transfer area and the third port, characterized in that the plate heat exchanger at the second end plate is arranged with a passage between the second port and the third port, so that the second medium can flow between them.
Leak detecting device of the counterflow type, comprising a high vacuum pump having an inlet connected to a mass spectrometer, a prevacuum pump having an inlet connected to an outlet of the high vacuum pump and, via a bypass-conduit check valve, to a leak detecting device input, a connecting conduit between the leak detecting device input and an intermediate inlet of the high vacuum pump, a first valve in the course of the connecting conduit, said first valve having an adjustable conductance, and a control device comprising a valve control module. characterized in that, in the course of the connecting conduit, a second valve is provided which is arranged parallel to the adjustable first valve, and that the first valve, the second valve and the bypass-conduit check valve are controlled by the valve control module in such a manner that, when the test chamber pressure prevailing at the leak detecting device input has reached the maximum allowable pressure at the intermediate inlet, the first valve is fully opened and the second valve is also opened while the bypass-conduit check valve is closed.
A wireless multiple input multiple output, MIMO, communication method using a frame structure adopting a signaling field of a wireless multiple input multiple output, MIMO, communication system; the signaling field comprising a scrambler initialization subfield (B0-B6) for configuring an initial state of a scrambler; a single carrier/orthogonal frequency division multiplexing subfield for completing single carrier transmission and orthogonal frequency division multiplexing transmission; a dynamic bandwidth configuration subfield; and a spatial stream configuration subfield and a length subfield (B12-B29) for configuring to transmit the data length; the frame structure adopting the signaling field comprising a short training sequence field, a long training sequence field, a signaling field, a wave beam training sequence field and a data field, further comprising a signaling field A for completing control and configuration of the scrambler state, single carrier and orthogonal frequency division multiplexing transmission, dynamic bandwidth, user number of space-time stream, energy efficiency saving, space-time block coding, and basic transmission signaling or further comprising the signaling field A and a signaling field B for configuring to transmit the data length and modulation coding scheme of each user in the multi-user case; wherein a transmitter merely transmits the signaling field A in a communication frame when the wireless MIMO system is single-user; while a transmitter transmits the signaling field A and the signaling field B in a communication frame in sequence when the wireless MIMO system is multi-user, wherein the length subfield of the signaling field A is used for configuring to transmit a maximum data length in various users, and the length subfield in the signaling field B is used for configuring to transmit the data length and modulation coding scheme of various users; and wherein a dynamic configuration method of the signaling field A comprises the following steps of dividing a channel into a primary channel and a secondary channel, and setting values of a bandwidth subfield, a dynamic bandwidth subfield and a sub-band identification subfield according to the situations of the primary channel and the secondary channel.
A differential bore suck-back device (20, 125; 700; 900; 1000) comprising: a housing having an inlet for receiving fluid from a liquid outlet conduit of a pump (16, 102), the housing having a small bore (123; 706; 906; 1006) having a first diameter and a large bore (124; 708; 908; 1008) having a second diameter, wherein the first diameter is smaller than the second diameter; a dual body piston (114; 720; 920; 1020) having a small piston (115; 722; 922; 1022) sized to contact a wall of the small bore (123; 706; 906; 1006) and a large piston (116; 724; 924; 1024) sized to contact a wall of the large bore (124; 708; 908; 1008), wherein the small piston (115; 722; 922; 1022) is connected to a body that includes a flow restrictor (131; 730; 930; 1030) and the pistons (115, 116; 722, 724; 922, 924; 1022, 1024) are biased upward by a biasing member (135; 748; 948; 1048); a suck-back chamber (145; 780; 980; 1080) formed at least in part by the large bore and the large piston; a foam outlet (136; 760; 960; 1060) for allowing foam to flow out of the suck-back chamber (145; 780; 980; 1080); wherein fluid flow through the flow restrictor (131; 730; 930; 1030) causes movement of the small piston (115; 722; 922; 1022) and the large piston (116; 724; 924; 1024) in a first direction and causes the suck-back chamber (145; 780; 980; 1080) to compress; wherein the biasing member (135; 748; 948; 1048) causes the first piston seal and the second piston seal to move in a second direction and expand the suck-back chamber (145; 780; 980; 1080). a housing having an inlet for receiving fluid from a liquid outlet conduit of a pump (16, 102), the housing having a small bore (123; 706; 906; 1006) having a first diameter and a large bore (124; 708; 908; 1008) having a second diameter, wherein the first diameter is smaller than the second diameter; a dual body piston (114; 720; 920; 1020) having a small piston (115; 722; 922; 1022) sized to contact a wall of the small bore (123; 706; 906; 1006) and a large piston (116; 724; 924; 1024) sized to contact a wall of the large bore (124; 708; 908; 1008), wherein the small piston (115; 722; 922; 1022) is connected to a body that includes a flow restrictor (131; 730; 930; 1030) and the pistons (115, 116; 722, 724; 922, 924; 1022, 1024) are biased upward by a biasing member (135; 748; 948; 1048); a suck-back chamber (145; 780; 980; 1080) formed at least in part by the large bore and the large piston; a foam outlet (136; 760; 960; 1060) for allowing foam to flow out of the suck-back chamber (145; 780; 980; 1080); wherein fluid flow through the flow restrictor (131; 730; 930; 1030) causes movement of the small piston (115; 722; 922; 1022) and the large piston (116; 724; 924; 1024) in a first direction and causes the suck-back chamber (145; 780; 980; 1080) to compress; wherein the biasing member (135; 748; 948; 1048) causes the first piston seal and the second piston seal to move in a second direction and expand the suck-back chamber (145; 780; 980; 1080).
A method of wireless communication, comprising: receiving, by a base station, via remaining minimum system information, one or more parameters associated with a target base station, of a plurality of possible target base stations, for initiating a backhaul connection, wherein the target base station is deployed within a wireless backhaul network, wherein the one or more parameters include a random access channel, RACH, configuration period for the wireless backhaul network, and wherein the RACH configuration period for the wireless backhaul network is different from a RACH configuration period for an access network; determining, by the base station, a transmission configuration for a first random access message based at least in part on the one or more parameters associated with the target base station; and transmitting, by the base station, the first random access message using the transmission configuration. receiving, by a base station, via remaining minimum system information, one or more parameters associated with a target base station, of a plurality of possible target base stations, for initiating a backhaul connection, wherein the target base station is deployed within a wireless backhaul network, wherein the one or more parameters include a random access channel, RACH, configuration period for the wireless backhaul network, and wherein the RACH configuration period for the wireless backhaul network is different from a RACH configuration period for an access network; determining, by the base station, a transmission configuration for a first random access message based at least in part on the one or more parameters associated with the target base station; and transmitting, by the base station, the first random access message using the transmission configuration.
An imaging system comprising: an imaging array comprising a plurality of single-bit or multi-bit jots, wherein each jot is configured to generate an electrical signal in response to photon absorption; readout circuitry in electrical communication with the imaging array and configured to quantize, for each jot, an analog signal corresponding to the electrical signal of the jot, wherein the imaging system is configured as a 3D vertically integrated circuit with the imaging array stacked vertically above the readout circuitry; and wherein the imaging array is configured as a plurality of clusters (C i,j:i = 1, 2, 3... M; j = 1, 2, 3... N), each cluster comprising a respective plurality of said jots, and wherein each said cluster is electrically coupled to and configured to be read out in parallel by a respective readout circuit block (ASP, ADC, IP1 (i,j): i = 1, 2, 3... M; j = 1, 2, 3... N)) of the readout circuitry, each readout circuit block comprising a respective primary image processor configured to generate a digital value corresponding to the respective cluster based on processing digital signals corresponding to the electrical signals generated by each of the plurality of jots read out from the respective cluster, wherein the digital value corresponding to the respective cluster is stored in a respective memory. an imaging array comprising a plurality of single-bit or multi-bit jots, wherein each jot is configured to generate an electrical signal in response to photon absorption; readout circuitry in electrical communication with the imaging array and configured to quantize, for each jot, an analog signal corresponding to the electrical signal of the jot, wherein the imaging system is configured as a 3D vertically integrated circuit with the imaging array stacked vertically above the readout circuitry; and wherein the imaging array is configured as a plurality of clusters (C i,j:i = 1, 2, 3... M; j = 1, 2, 3... N), each cluster comprising a respective plurality of said jots, and wherein each said cluster is electrically coupled to and configured to be read out in parallel by a respective readout circuit block (ASP, ADC, IP1 (i,j): i = 1, 2, 3... M; j = 1, 2, 3... N)) of the readout circuitry, each readout circuit block comprising a respective primary image processor configured to generate a digital value corresponding to the respective cluster based on processing digital signals corresponding to the electrical signals generated by each of the plurality of jots read out from the respective cluster, wherein the digital value corresponding to the respective cluster is stored in a respective memory.
A method, performed in a first electronic device, for authorizing access to a second electronic device, the method comprising: establishing communication between the first electronic device and the second electronic device; obtaining, based on a signal received at the first electronic device from the second electronic device, data indicative of relative motion (130, 132) between the first and second electronic devices (112, 114) toward or away from each other, wherein the data includes a pattern of frequency change based on multiple frequency changes of the signal or multiple frequency differences between frequencies of the signal and a reference frequency; generating a control signal authorizing access to the second electronic device based on a comparison of the pattern of frequency change to a reference pattern of frequency change; and transmitting the control signal to the second electronic device. establishing communication between the first electronic device and the second electronic device; obtaining, based on a signal received at the first electronic device from the second electronic device, data indicative of relative motion (130, 132) between the first and second electronic devices (112, 114) toward or away from each other, wherein the data includes a pattern of frequency change based on multiple frequency changes of the signal or multiple frequency differences between frequencies of the signal and a reference frequency; generating a control signal authorizing access to the second electronic device based on a comparison of the pattern of frequency change to a reference pattern of frequency change; and transmitting the control signal to the second electronic device.
A computer implemented system comprising: an access control component (115; 200; 620; 710) of a mobile device (110; 750) that regulates a range of access for a non-owner user of the mobile device to personal information of an owner of the mobile device (110; 750), wherein the personal information is stored on the mobile device; an analysis component (310; 740) of the mobile device that recommends an access mode specifying the range of access, based at least in part on an amount of the personal information that is accessible by one or more applications on the mobile device; and a usage profile that designates the range of access for the non-owner user of the mobile device (110; 750) to the personal information. an access control component (115; 200; 620; 710) of a mobile device (110; 750) that regulates a range of access for a non-owner user of the mobile device to personal information of an owner of the mobile device (110; 750), wherein the personal information is stored on the mobile device; an analysis component (310; 740) of the mobile device that recommends an access mode specifying the range of access, based at least in part on an amount of the personal information that is accessible by one or more applications on the mobile device; and a usage profile that designates the range of access for the non-owner user of the mobile device (110; 750) to the personal information.
A method comprising: determining a type of change event corresponding to a change in access to an enterprise system for a plurality of remote devices; identifying an action process class associated with the type of change event, wherein the action process class defines an action process to perform for the type of change event; selecting, based on a processing load of each of a plurality of computing nodes, a set of computing nodes of the plurality of computing nodes to perform the action process for the change in access; establishing, by a computer system, based on the type of change event, a first change event object for a first set of remote devices in the plurality of remote devices, wherein a change event object indicates information about the change in access; establishing, by the computer system, based on the type of change event, a second change event object for a second set of remote devices in the plurality of remote devices, wherein each of the first set of remote devices is different from each of the second set of remote devices; initiating, by a first computing node of the set of computing nodes, using the first change event object, the action process for a first action process object, wherein the first action process object is established based on the action process class; and initiating, by a second computing node of the set of computing nodes, using the second change event object, the action process for a second action process object, wherein the second action process object is established based on the action process class. determining a type of change event corresponding to a change in access to an enterprise system for a plurality of remote devices; identifying an action process class associated with the type of change event, wherein the action process class defines an action process to perform for the type of change event; selecting, based on a processing load of each of a plurality of computing nodes, a set of computing nodes of the plurality of computing nodes to perform the action process for the change in access; establishing, by a computer system, based on the type of change event, a first change event object for a first set of remote devices in the plurality of remote devices, wherein a change event object indicates information about the change in access; establishing, by the computer system, based on the type of change event, a second change event object for a second set of remote devices in the plurality of remote devices, wherein each of the first set of remote devices is different from each of the second set of remote devices; initiating, by a first computing node of the set of computing nodes, using the first change event object, the action process for a first action process object, wherein the first action process object is established based on the action process class; and initiating, by a second computing node of the set of computing nodes, using the second change event object, the action process for a second action process object, wherein the second action process object is established based on the action process class.
A bus bar comprising: members made from a conductive material and consecutively arranged to form a plate shape defining a wiring pathway, wherein the members adjacent to each other have a quadrangular plate shape and have connection surfaces (21, 23, 25, 27, 31, 33), the members adjacent to each other being members laser joined at the connection surfaces (21, 23, 25, 27, 31, 33), wherein surfaces having the connection surfaces (21, 23, 25, 27, 31, 33) of the members adjacent to each other have different widths and a plate length of one member is equal to or longer than a prescribed length corresponding to the wiring pathway, this constitutes at least one tolerance buffer between the members adjacent to each other and the tolerance buffer can absorb manufacturing tolerances, wherein the bus bar is formed according to the wiring pathway having bent portions between the members so forming a three dimensional wiring pathway, the conductive members include at least two connection members (15, 17) and a conductive member, the weld is across the end width of the connection members (15, 17) to the length dimension of the connection members (15, 17) at the bend, the connection members (15, 17) effectively being made longer than necessary to provide the tolerance buffer between the conductive member and the connection members (15, 17). members made from a conductive material and consecutively arranged to form a plate shape defining a wiring pathway, wherein the members adjacent to each other have a quadrangular plate shape and have connection surfaces (21, 23, 25, 27, 31, 33), the members adjacent to each other being members laser joined at the connection surfaces (21, 23, 25, 27, 31, 33), wherein surfaces having the connection surfaces (21, 23, 25, 27, 31, 33) of the members adjacent to each other have different widths and a plate length of one member is equal to or longer than a prescribed length corresponding to the wiring pathway, this constitutes at least one tolerance buffer between the members adjacent to each other and the tolerance buffer can absorb manufacturing tolerances, wherein the bus bar is formed according to the wiring pathway having bent portions between the members so forming a three dimensional wiring pathway, the conductive members include at least two connection members (15, 17) and a conductive member, the weld is across the end width of the connection members (15, 17) to the length dimension of the connection members (15, 17) at the bend, the connection members (15, 17) effectively being made longer than necessary to provide the tolerance buffer between the conductive member and the connection members (15, 17).