mhurhangee/ep-ind-claims huggingface dataset:
A wafer level method of making a micro-electronic and/or micro-mechanic device, having a capping with electrical wafer through via connections, comprising the steps of: providing a first wafer of a semiconductor material having a first and a second side, and a barrier structure extending over the wafer on the second side, said barrier comprising an inner layer of an insulating material acting as an etch stop layer, and an outer layer in the form of a handle layer of another material; patterning and etching the device layer of said first wafer from the first side down to the inner layer, to provide a plurality of holes and/or recesses having a well-defined depth; applying metal in said holes so as to cover the walls in the holes and the bottom of the holes; removing the outer layer/handle layer; providing contacts to the wafer through connections on the back-side of the wafer; providing bonding structures on either of said first side or the second side of the wafer; and bonding the wafer to another wafer carrying electronic and micro-electronic/mechanic components, such that the first wafer forms a capping structure covering the second wafer; and singulating the wafer to individual devices. providing a first wafer of a semiconductor material having a first and a second side, and a barrier structure extending over the wafer on the second side, said barrier comprising an inner layer of an insulating material acting as an etch stop layer, and an outer layer in the form of a handle layer of another material; patterning and etching the device layer of said first wafer from the first side down to the inner layer, to provide a plurality of holes and/or recesses having a well-defined depth; applying metal in said holes so as to cover the walls in the holes and the bottom of the holes; removing the outer layer/handle layer; providing contacts to the wafer through connections on the back-side of the wafer; providing bonding structures on either of said first side or the second side of the wafer; and bonding the wafer to another wafer carrying electronic and micro-electronic/mechanic components, such that the first wafer forms a capping structure covering the second wafer; and singulating the wafer to individual devices.
An evaporative air cooling tower comprising: a housing; a fan at least partially disposed within the housing; a drawer at least partially disposed within the housing, wherein the drawer includes a liquid tank configured for storing liquid and receiving an ice pack and a pump therein; a hose connector positioned adjacent to a top portion of the housing; a first hose disposed within the housing, wherein the first hose includes a first end connected to the pump and a second end connected to the hose connector, such that the pump is configured to pump the liquid stored in the liquid tank to the hose connector through the first hose; and a first mister assembly disposed within the housing, wherein the first mister assembly includes: a first mister configured to dispense mist; and a first mister tank in fluid communication with the first mister and configured to receive liquid from the hose connector and supply liquid to the first mister for dispensing the mist. a housing; a fan at least partially disposed within the housing; a drawer at least partially disposed within the housing, wherein the drawer includes a liquid tank configured for storing liquid and receiving an ice pack and a pump therein; a hose connector positioned adjacent to a top portion of the housing; a first hose disposed within the housing, wherein the first hose includes a first end connected to the pump and a second end connected to the hose connector, such that the pump is configured to pump the liquid stored in the liquid tank to the hose connector through the first hose; and a first mister assembly disposed within the housing, wherein the first mister assembly includes: a first mister configured to dispense mist; and a first mister tank in fluid communication with the first mister and configured to receive liquid from the hose connector and supply liquid to the first mister for dispensing the mist. a first mister configured to dispense mist; and a first mister tank in fluid communication with the first mister and configured to receive liquid from the hose connector and supply liquid to the first mister for dispensing the mist.
A method of a base station for transmitting a downlink packet, the method comprising: generating a downlink packet including a header for a specific protocol layer, the header including a protocol data unit, PDU, session ID of the downlink packet, an identifier of a quality of service, QoS, flow to which the downlink packet belongs and a reflective QoS indicator that serves to indicate whether to check and update a mapping for an uplink packet associated with the QoS flow; and transmitting the downlink packet to a user equipment, UE, wherein the specific protocol layer, which is on top of a packet data convergence protocol, PDCP, layer, is a non-data radio bearer, DRB, specific protocol entity, and wherein the specific protocol layer has a functionality of mapping the QoS flow to a corresponding DRB associated with the PDCP layer, wherein traffic from multiple PDU sessions can be multiplexed to one DRB. generating a downlink packet including a header for a specific protocol layer, the header including a protocol data unit, PDU, session ID of the downlink packet, an identifier of a quality of service, QoS, flow to which the downlink packet belongs and a reflective QoS indicator that serves to indicate whether to check and update a mapping for an uplink packet associated with the QoS flow; and transmitting the downlink packet to a user equipment, UE, wherein the specific protocol layer, which is on top of a packet data convergence protocol, PDCP, layer, is a non-data radio bearer, DRB, specific protocol entity, and wherein the specific protocol layer has a functionality of mapping the QoS flow to a corresponding DRB associated with the PDCP layer, wherein traffic from multiple PDU sessions can be multiplexed to one DRB.
An inkjet recording method comprising the steps of: preparing an ink set which comprises: (i) at least one ink composition A comprising a polymerization initiator (a-1) and a polymerizable compound (b-1), at least 65 wt.% of the polymerizable compound (b-1) being a monofunctional polymerizable compound, and (ii) at least one ink composition B having the same colour as ink composition A and comprising a polymerization initiator (a-2) and a polymerizable compound (b-2), at least 50 wt.% of the polymerizable compound (b-2) being a polyfunctional polymerizable compound; detecting one or more characteristics and/or the composition of the support; selecting the relative amounts of ink composition A and ink composition B to be discharged onto a support based on the detected characteristic(s) and/or composition of the support; and discharging the selected relative amounts of the ink compositions onto the support. preparing an ink set which comprises: (i) at least one ink composition A comprising a polymerization initiator (a-1) and a polymerizable compound (b-1), at least 65 wt.% of the polymerizable compound (b-1) being a monofunctional polymerizable compound, and (ii) at least one ink composition B having the same colour as ink composition A and comprising a polymerization initiator (a-2) and a polymerizable compound (b-2), at least 50 wt.% of the polymerizable compound (b-2) being a polyfunctional polymerizable compound; (i) at least one ink composition A comprising a polymerization initiator (a-1) and a polymerizable compound (b-1), at least 65 wt.% of the polymerizable compound (b-1) being a monofunctional polymerizable compound, and (ii) at least one ink composition B having the same colour as ink composition A and comprising a polymerization initiator (a-2) and a polymerizable compound (b-2), at least 50 wt.% of the polymerizable compound (b-2) being a polyfunctional polymerizable compound; detecting one or more characteristics and/or the composition of the support; selecting the relative amounts of ink composition A and ink composition B to be discharged onto a support based on the detected characteristic(s) and/or composition of the support; and discharging the selected relative amounts of the ink compositions onto the support.
A wireless wide area network, WWAN, terminal comprising: a wireless communication unit configured to receive SSID information for a second network from another WWAN terminal, to send a connection request to a wireless local area network, WLAN, terminal, and to establish a direct wireless connection between the WWAN terminal in a first network and the WLAN terminal based on the connection request; and a control unit configured to assist connection between the WLAN terminal and a WLAN base station in the second network by sending, to the WLAN terminal, i) user information of the another WWAN terminal, the received SSID information for the second network and authentication information generated by the another WWAN terminal or ii) user information of the WWAN terminal, SSID information of the WWAN terminal for the second network and authentication information generated by the WWAN terminal. a wireless communication unit configured to receive SSID information for a second network from another WWAN terminal, to send a connection request to a wireless local area network, WLAN, terminal, and to establish a direct wireless connection between the WWAN terminal in a first network and the WLAN terminal based on the connection request; and a control unit configured to assist connection between the WLAN terminal and a WLAN base station in the second network by sending, to the WLAN terminal, i) user information of the another WWAN terminal, the received SSID information for the second network and authentication information generated by the another WWAN terminal or ii) user information of the WWAN terminal, SSID information of the WWAN terminal for the second network and authentication information generated by the WWAN terminal. i) user information of the another WWAN terminal, the received SSID information for the second network and authentication information generated by the another WWAN terminal or ii) user information of the WWAN terminal, SSID information of the WWAN terminal for the second network and authentication information generated by the WWAN terminal.
A lawn mower comprising: a cutter blade including a blade body and a flap, the blade body extending in a direction perpendicular to a blade rotational axis and including a blade edge in a front edge in a rotation direction, the flap having a changeable flap angle (θ), and being attached to the blade body; and a flap drive mechanism configured to drive the flap, characterised in that, the blade body has a shape with a sweepback angle inclined in a reverse-rotation direction of the cutter blade with respect to a rotational direction around the blade rotational axis, the pivotal axis of the flap is provided along the blade edge without intersecting with the blade rotational axis, and the pivotal axis is provided at a position offset from a line perpendicular to the blade rotational axis and in parallel to the pivotal axis, in a rotation direction of the cutter blade. a cutter blade including a blade body and a flap, the blade body extending in a direction perpendicular to a blade rotational axis and including a blade edge in a front edge in a rotation direction, the flap having a changeable flap angle (θ), and being attached to the blade body; and a flap drive mechanism configured to drive the flap, characterised in that, the blade body has a shape with a sweepback angle inclined in a reverse-rotation direction of the cutter blade with respect to a rotational direction around the blade rotational axis, the pivotal axis of the flap is provided along the blade edge without intersecting with the blade rotational axis, and the pivotal axis is provided at a position offset from a line perpendicular to the blade rotational axis and in parallel to the pivotal axis, in a rotation direction of the cutter blade.
Electric-motor-operated food processor comprising a base unit which has an electric motor, a preparation vessel which can be arranged on the base unit, with which preparation vessel a heating device and a mixer are associated, and a distillation device which can be connected to the preparation vessel and which has a steam receiving device, a condensation device and a liquid dispensing device, the preparation vessel and the steam receiving device, when the preparation vessel and the distillation device are connected, having a flow connection, characterised in that the distillation device has a receiving region which is associated with the liquid dispensing device and is intended for a collecting vessel to be arranged therein, the liquid dispensing device protruding, in the receiving region, from a housing of the distillation device.
A method for purification of liquids or vapors at an evaporation plant, characterized by separating contaminants from liquids by stripping when bringing a contaminant-enriched liquid into direct contact with a vapor by spraying or distributing the liquid into the vapor flowing in a vapor duct or onto wall surfaces in the vapor duct thus reducing the contaminant-content of the sprayed liquid and producing a cleaner liquid such that contaminants are enriched in the vapor, and collecting the cleaned liquid, or by separating contaminants from vapors by absorption when bringing a liquid into direct contact with a contaminated vapor by spraying or distributing a contaminant-cleaner liquid into the vapor flowing in a vapor duct or onto wall surfaces in the vapor duct thus increasing the contaminant-content of the sprayed liquid and producing a cleaned vapor, such that contaminants are enriched in the liquid and collecting the contaminant-enriched liquid.
A system comprising a well with a well pump, a storage tank connected to the well pump with well output piping, a well back pressure transducer in line with the well output piping for measuring well back pressure in the well output piping, a flow regulator in line with the well output piping and downstream from the well back pressure transducer, the flow regulator configured to provide for a uniform flow rate in the well output piping upstream of the flow regulator;; and a control panel configured for controlling the well pump, the control panel configured for receiving well pump back pressure information from the well back pressure transducer, the control panel configured for controlling the well pump based on the well pump back pressure information. a flow regulator in line with the well output piping and downstream from the well back pressure transducer, the flow regulator configured to provide for a uniform flow rate in the well output piping upstream of the flow regulator;; and a control panel configured for controlling the well pump, the control panel configured for receiving well pump back pressure information from the well back pressure transducer, the control panel configured for controlling the well pump based on the well pump back pressure information.
A fiber optic cable connector for connecting to an ST type receptacle comprising: a compression spring; a backbone, the backbone comprising a front end; and a bayonet, the bayonet comprising a retaining flange; the connector being characterised in that: the backbone comprises a pair of opposing backbone flats and the bayonet comprises a pair of opposing anti-rotation flats; the bayonet, spring, and backbone configured such that when the front end of the backbone is pressed against the retaining flange by the compression spring, the backbone flats and the anti-rotation flats align in order to prevent rotation of the bayonet relative to the backbone; wherein the internal compression spring is arranged to bias the bayonet away from the backbone during connection of the fiber optic cable connector to an ST type receptacle. a compression spring; a backbone, the backbone comprising a front end; and a bayonet, the bayonet comprising a retaining flange; the connector being characterised in that: the backbone comprises a pair of opposing backbone flats and the bayonet comprises a pair of opposing anti-rotation flats; the bayonet, spring, and backbone configured such that when the front end of the backbone is pressed against the retaining flange by the compression spring, the backbone flats and the anti-rotation flats align in order to prevent rotation of the bayonet relative to the backbone; wherein the internal compression spring is arranged to bias the bayonet away from the backbone during connection of the fiber optic cable connector to an ST type receptacle. the backbone comprises a pair of opposing backbone flats and the bayonet comprises a pair of opposing anti-rotation flats; the bayonet, spring, and backbone configured such that when the front end of the backbone is pressed against the retaining flange by the compression spring, the backbone flats and the anti-rotation flats align in order to prevent rotation of the bayonet relative to the backbone; wherein the internal compression spring is arranged to bias the bayonet away from the backbone during connection of the fiber optic cable connector to an ST type receptacle.
A light emitting diode assembly comprising at least one light emitting diode and a thermal management assembly, the thermal management assembly comprising: a heat sink in thermal contact with a support member, wherein the heat sink includes: thermal pyrolytic graphite material; a first substrate; and a second substrate, wherein the thermal pyrolytic graphite material is at least partially disposed between the first and second substrates (220, 230); and wherein the heat sink comprises at least one fin at least partially comprising the thermal pyrolytic graphite material; wherein the heat sink further comprises interlayers (240, 250) disposed between the thermal pyrolytic graphite and the first substrate, and between the thermal pyrolytic graphite and the second substrate, wherein the interlayers (240, 250) comprise a metal-based material; and wherein the heat sink comprises a core member comprising a proximal end that is proximal to the light emitting diode and a distal end extending from the proximal end, wherein the core member at least partially comprises the thermal pyrolytic graphite material. thermal pyrolytic graphite material; a first substrate; and a second substrate, wherein the thermal pyrolytic graphite material is at least partially disposed between the first and second substrates (220, 230); and wherein the heat sink comprises at least one fin at least partially comprising the thermal pyrolytic graphite material; wherein the heat sink further comprises interlayers (240, 250) disposed between the thermal pyrolytic graphite and the first substrate, and between the thermal pyrolytic graphite and the second substrate, wherein the interlayers (240, 250) comprise a metal-based material; and wherein the heat sink comprises a core member comprising a proximal end that is proximal to the light emitting diode and a distal end extending from the proximal end, wherein the core member at least partially comprises the thermal pyrolytic graphite material.
An optical system comprising: (a) a blocking switch comprising first and second input ports (1,2) and 2 output ports (1', 2'); a first 1xM switch having an input coupled to a first output port of the blocking switch; and a second 1xM switch having an input coupled to the second output port of the blocking switch to provide a 2xM switch; (b) a primary laser connected to the first input port, said primary laser capable of being routed to any of the M ports (54a, 54b, 54c, 54M) of either 1xM switch; and (c) a backup laser connected to port 2, said backup laser capable of being routed to any of the same M ports (54a, 54b, 54c, 54M)of either 1xM switch; wherein the first and second 1xM switches are of the same type and do not allow simultaneous switching of the first and second input ports. (a) a blocking switch comprising first and second input ports (1,2) and 2 output ports (1', 2'); a first 1xM switch having an input coupled to a first output port of the blocking switch; and a second 1xM switch having an input coupled to the second output port of the blocking switch to provide a 2xM switch; (b) a primary laser connected to the first input port, said primary laser capable of being routed to any of the M ports (54a, 54b, 54c, 54M) of either 1xM switch; and (c) a backup laser connected to port 2, said backup laser capable of being routed to any of the same M ports (54a, 54b, 54c, 54M)of either 1xM switch; wherein the first and second 1xM switches are of the same type and do not allow simultaneous switching of the first and second input ports.
A device for handling notes of value, comprising at least one cash box for receiving notes of value; and at least one separating and/or stacking module for removing notes of value from the cash box and/or for supplying notes of value to the cash box; wherein the separating and/or stacking module is arranged separately from the cash box; the separating and/or stacking module comprises a transport path along which notes of value to be supplied to the cash box and/or notes of value to be removed from the cash box are transportable; at least one part of the transport path is limited by a swivel arrangement with transport elements that in a first position is arranged such that notes of value are transportable at least along the part of the transport path and that no or only limited access to these notes of value is possible, and wherein in a second position this swivel arrangement is arranged such that manual access to the part of the transport path is possible; and wherein the separating and/or stacking module comprises a locking mechanism for locking the swivel arrangement; that the locking mechanism comprises a locking element that is firmly connected to the swivel arrangement and that has a first end portion and a second end portion opposite to the first end portion; that in a first position the locking element is arranged such that the first end portion is engaged with a first engagement area of a stationary first chassis element of the separating and/or stacking module, the second end portion is engaged with a second engagement area of a stationary second chassis element of the separating and/or stacking module, and the swivel arrangement is held in the first position via engagement of the first end portion and the first engagement area as well as engagement of the second end portion and the second engagement area; in a second position the locking element is arranged such that the first end portion and the first engagement area do not engage with each other and the second end portion and the second engagement area do not engage with each other, so that the swivel arrangement is movable from the first position to the second position and/or from the second position to the first position; and that the first end portion comprises an operating element by means of which the locking element is movable from the first position to the second position.
A dimming device comprising a light source, a support, a diffuser for light diffusion, and blades for light shielding, the support being provided with a light path corresponding to the light source, and notches being provided on the blades, the blades and the diffuser are movably disposed on the support, the notches of the blades move into and out of the light path with the movements of the blades into and out of the light path, and the diffuser covers a portion of notches that is within the light path when moving into and out of the light path, wherein the diffuser is integrally formed without any slots, and the blades and the diffuser are actuated by at least one independent actuator, respectively characterized in that the diffuser is actuated by a motor, the motor is disposed on the support with a main shaft of the motor parallel to the axis of the light path; the main shaft is provided with an arm rotatable along with the main shaft; and the diffuser is disposed at a free end of the arm.