mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an elevator drive system, the method comprising: monitoring a velocity of the elevator drive system; disabling a drive inverter in the elevator drive system when the velocity remains below a velocity threshold for a fault threshold time; and engaging a sheave brake to prevent motion of a drive sheave in the elevator drive system, and characterised by: the monitoring step comprising: sensing velocity of the elevator drive system; comparing the velocity with the velocity threshold; and incrementing an encoder fault timer when the velocity is less than the velocity threshold. monitoring a velocity of the elevator drive system; disabling a drive inverter in the elevator drive system when the velocity remains below a velocity threshold for a fault threshold time; and engaging a sheave brake to prevent motion of a drive sheave in the elevator drive system, and characterised by: the monitoring step comprising: sensing velocity of the elevator drive system; comparing the velocity with the velocity threshold; and incrementing an encoder fault timer when the velocity is less than the velocity threshold. the monitoring step comprising: sensing velocity of the elevator drive system; comparing the velocity with the velocity threshold; and incrementing an encoder fault timer when the velocity is less than the velocity threshold. sensing velocity of the elevator drive system; comparing the velocity with the velocity threshold; and incrementing an encoder fault timer when the velocity is less than the velocity threshold.
A rotation press for carrying out at least two pressing processes during a rotation of the rotation press, comprising a rotor, a die table, an upper stamp guide for receiving upper stamps and a lower stamp guide for receiving lower stamps, wherein the upper stamps have at least two upper stamp tips (12, 13) and the lower stamps have at least two lower stamp tips (14, 15), the die table has first die cavities aligned toward first upper and lower stamp tips (12, 14), and has second die cavities aligned toward second upper and lower stamp tips (13, 15), characterized in that the length of a first upper stamp tip is shorter by a length difference than a second upper stamp tip, and in that the length of a first lower stamp tip is longer by the length difference than a second lower stamp tip, so that in a first pressing process, a first pressing material can be pressed into the first die cavities and in a second pressing process a second pressing material can be pressed into the second die cavities during a rotation of the rotor of the rotation press.
A method of fabricating optoelectronic modules each of which includes at least one optoelectronic device and at least one optical element, the method comprising: providing a wafer that has a plurality of transparent portions laterally spaced from one another, wherein each of the transparent portions is surrounded laterally by non-transparent material, wherein the wafer is in a plane and is disposed on a support surface that has openings adjacent a first side of the plane; providing a combined replication and vacuum injection tool on a second side of the plane; forming a respective optical element on each of the transparent portions on the second side of the plane by an embossing-type replication technique using the combined replication and vacuum injection tool; and filling the openings in the support surface with a first non-transparent material and forming spacer elements composed of the non-transparent material on the second side of the plane by a vacuum injection process using the combined replication and vacuum injection tool. providing a wafer that has a plurality of transparent portions laterally spaced from one another, wherein each of the transparent portions is surrounded laterally by non-transparent material, wherein the wafer is in a plane and is disposed on a support surface that has openings adjacent a first side of the plane; providing a combined replication and vacuum injection tool on a second side of the plane; forming a respective optical element on each of the transparent portions on the second side of the plane by an embossing-type replication technique using the combined replication and vacuum injection tool; and filling the openings in the support surface with a first non-transparent material and forming spacer elements composed of the non-transparent material on the second side of the plane by a vacuum injection process using the combined replication and vacuum injection tool.
Face mask for non-invasive respiratory therapy of the full face type, comprising a shaped shell configured so as to cover at least the mouth, the nose and the eyes of a patient when the mask is worn, said shaped shell having a perimeter provided with a sealing gasket, said shaped shell comprising, approximately centrally, a shaped portion projecting from the front surface of said shell towards the outside, configured so as to be substantially at the nose and mouth of the patient when the mask is worn, wherein said shaped portion comprises a conical section terminating with an outer front surface characterised in that said shaped shell comprises one inlet fitting connectable to a pipe through which a ventilation apparatus supplies the mask with a mixture of air and oxygen, and one outlet fitting, separate from said inlet fitting, for the discharge of air exhaled by the patient, characterized in that said outlet fitting for exhaled air is obtained on said front surface (12") of said shaped portion and said inlet fitting is obtained on said conical section of said shaped portion on the lower part with respect to said outlet fitting.
A process for producing acrolein, comprising: a glycerin dehydration step of conducting dehydration reaction of glycerin to obtain an acrolein-containing gas; a partial-condensation step of cooling the acrolein-containing gas to condense a part of acrolein, water and a high-boiling substance contained in the acrolein-containing gas, thereby obtaining a purified gas and a condensate; and a separation step of separating the purified gas from the condensate; wherein a polymerization inhibitor is added to the acrolein-containing gas or the condensate in the partial-condensation step, a mass ratio of acrolein/(water + hydroxyacetone) in the condensate is 1/99 or more, and the high-boiling substance is a substance which has a boiling point higher than that of acrolein, wherein water is excluded from the high-boiling substance. a glycerin dehydration step of conducting dehydration reaction of glycerin to obtain an acrolein-containing gas; a partial-condensation step of cooling the acrolein-containing gas to condense a part of acrolein, water and a high-boiling substance contained in the acrolein-containing gas, thereby obtaining a purified gas and a condensate; and a separation step of separating the purified gas from the condensate; wherein a polymerization inhibitor is added to the acrolein-containing gas or the condensate in the partial-condensation step, a mass ratio of acrolein/(water + hydroxyacetone) in the condensate is 1/99 or more, and the high-boiling substance is a substance which has a boiling point higher than that of acrolein, wherein water is excluded from the high-boiling substance.
A method for communicating remote and local data in a wireless fronthaul of a wireless network, the wireless fronthaul comprising a relay configured to wirelessly communicate with a user equipment, UE, over a first wireless link and a base station, BS, over a second wireless link, wherein a radio bearer comprising an upper portion including upper protocol layers and a lower portion including lower protocol layers is established between the UE and a network node of the wireless network, and wherein the UE communicates with the network node via the relay and the BS, wherein the upper protocol layers comprise at least one of: a packet data convergence protocol, PDCP, layer; a portion of a radio link control, RLC, which performs re-transmissions; and wherein the lower protocol layers comprise at least one of: a RLC layer or a portion of a RLC layer, which performs segmentation only; a medium access control, MAC, layer; a physical, PHY, layer, the method comprising: terminating, at the relay, the lower portion of the radio bearer for the UE; forwarding, at the relay, the upper portion of the radio bearer for the UE to the network node over the second wireless link; dividing, at the relay, the lower portion of the radio bearer for the UE into multiple portions including a second portion and a third portion (1010, 1012); inserting a multiplexing layer between the second portion and the third portion (1010, 1012) of the multiple portions; and carrying the third portion (1010, 1012) between the relay and the BS, the multiplexing layer indicating one of: the third portion (1010, 1012) includes local data generated at the relay, which is transmitted in an upper portion of a radio bearer established between the relay and the BS; the third portion (1010, 1012) includes remote data generated by the UE, which is transmitted in a tunnel between the relay and the BS. terminating, at the relay, the lower portion of the radio bearer for the UE; forwarding, at the relay, the upper portion of the radio bearer for the UE to the network node over the second wireless link; dividing, at the relay, the lower portion of the radio bearer for the UE into multiple portions including a second portion and a third portion (1010, 1012); inserting a multiplexing layer between the second portion and the third portion (1010, 1012) of the multiple portions; and carrying the third portion (1010, 1012) between the relay and the BS, the multiplexing layer indicating one of: the third portion (1010, 1012) includes local data generated at the relay, which is transmitted in an upper portion of a radio bearer established between the relay and the BS; the third portion (1010, 1012) includes remote data generated by the UE, which is transmitted in a tunnel between the relay and the BS. the third portion (1010, 1012) includes local data generated at the relay, which is transmitted in an upper portion of a radio bearer established between the relay and the BS; the third portion (1010, 1012) includes remote data generated by the UE, which is transmitted in a tunnel between the relay and the BS.
A method of transferring a call from a first communications device to a second communications device, the method comprising: automatically detecting proximity of a first communications device to a second communications device, wherein the first and second communications devices are either a landline telephone, cellular telephone, wireless telephone or Voice-over-Internet Protocol (VoIP) telephone; communicating a transfer request from the second communications device to the first communications device based on the detected proximity wherein the transfer request comprises designation information of the second communications device and wherein the communicating the transfer request is independent of whether the first communications device is currently engaged in a call; receiving the transfer request at the first communications device; if the first communications device is engaged on an active call that is to be transferred to the second communications device, communicating a consult call from the first communications device to the second communications device using the designation information of the second communications device received in the transfer request; maintaining the active call uninterrupted during the active call transfer by executing the active call transfer without placing the active call on hold or ending the active call prior to transferring the active call until the consult call is answered at the second communications device; and, in response to the consult call being answered at the second communication device, transferring the active call to the second communication device. automatically detecting proximity of a first communications device to a second communications device, wherein the first and second communications devices are either a landline telephone, cellular telephone, wireless telephone or Voice-over-Internet Protocol (VoIP) telephone; communicating a transfer request from the second communications device to the first communications device based on the detected proximity wherein the transfer request comprises designation information of the second communications device and wherein the communicating the transfer request is independent of whether the first communications device is currently engaged in a call; receiving the transfer request at the first communications device; if the first communications device is engaged on an active call that is to be transferred to the second communications device, communicating a consult call from the first communications device to the second communications device using the designation information of the second communications device received in the transfer request; maintaining the active call uninterrupted during the active call transfer by executing the active call transfer without placing the active call on hold or ending the active call prior to transferring the active call until the consult call is answered at the second communications device; and, in response to the consult call being answered at the second communication device, transferring the active call to the second communication device.
A device for controlling a reactive sputtering deposition of a selected material, comprising: a vacuum chamber; a means (20, 20') for supplying of an inert and reactive gas into the vacuum chamber; a probe unit adapted to be placed inside of the vacuum chamber and adapted to collect radiation signals and direct them to a signal detecting unit; a source adapted for generating plasma and/or creating a flux of sputtered particles of material; a means adapted for holding or placing on it a substrate to be subjected to sputtering of a selected material; an X-ray source adapted to expose a sputtering target by an X-ray beam, characterized in that the device further comprises: - a means for processing the detected signals and interpreting the signals received connected with a means adapted for providing a command to the means (20, 20') for supplying of an inert and/or reactive gas into the vacuum chamber; - an X-ray fluorescence polycapillary confocal probe comprising an X-ray optic; where the probe is adapted to collect the X-ray fluorescence signal from a selected part of the sputtering target; wherein the X-ray fluorescence probe is provided with an y- and/or z- axis manipulator allowing to direct the input end of the X-ray fluorescence probe in y- and/or z- axis direction; - an X-ray energy sensitive detector being optically connected with the probe such as to enable the X-ray optic to direct X-ray fluorescence beam towards the detector from the optic's input end facing the surface of the sputtering target; where the X-ray energy sensitive detector is being connected at least with the means for processing the detected signals or interpreting the signals received on the state of oxidation of the target. - a means for processing the detected signals and interpreting the signals received connected with a means adapted for providing a command to the means (20, 20') for supplying of an inert and/or reactive gas into the vacuum chamber; - an X-ray fluorescence polycapillary confocal probe comprising an X-ray optic; where the probe is adapted to collect the X-ray fluorescence signal from a selected part of the sputtering target; wherein the X-ray fluorescence probe is provided with an y- and/or z- axis manipulator allowing to direct the input end of the X-ray fluorescence probe in y- and/or z- axis direction; - an X-ray energy sensitive detector being optically connected with the probe such as to enable the X-ray optic to direct X-ray fluorescence beam towards the detector from the optic's input end facing the surface of the sputtering target; where the X-ray energy sensitive detector is being connected at least with the means for processing the detected signals or interpreting the signals received on the state of oxidation of the target.
A method of assembling a rotor stack comprising a plurality of component parts, the method comprising: determining swash measurements for interfacing surfaces of the plurality of parts; calculating a runout estimate for a plurality of relative orientations of the parts; applying an optimisation algorithm to identify an optimal orientation from the plurality of relative orientations based on the runout estimates; and assembling the parts in the optimal orientation; wherein at least one of the plurality of parts is selected from an inventory of available parts; characterised in that calculating the runout estimate comprises estimating deformation of the parts as a function of clamping load and in that the runout estimate is compared with a threshold value, and if it falls outside of the threshold value, a different combination of parts is selected. determining swash measurements for interfacing surfaces of the plurality of parts; calculating a runout estimate for a plurality of relative orientations of the parts; applying an optimisation algorithm to identify an optimal orientation from the plurality of relative orientations based on the runout estimates; and assembling the parts in the optimal orientation; wherein at least one of the plurality of parts is selected from an inventory of available parts; characterised in that calculating the runout estimate comprises estimating deformation of the parts as a function of clamping load and in that the runout estimate is compared with a threshold value, and if it falls outside of the threshold value, a different combination of parts is selected.
A generator of a magnetic field of adjustable direction including a magnetic circuit comprising: a first polar end (37; 90) of vertical axis arranged above a horizontal plane (29; 100), the horizontal plane (29; 100) corresponding to a plane perpendicular to a vertical axis of the first polar end (37; 90); and at least a pair of two second polar ends (28A to 28D; 102; 102') arranged symmetrically on said horizontal plane with relation to at least a plane comprising a vertical axis, the generator further comprising coils (50A to 50D, 52A, 52B; 82) arranged so that each magnetic circuit portion connecting two of the at least three polar ends runs inside at least one coil, the coils being adapted to be connected to circuits configured to conduct currents of settable intensities and of selected directions therethrough. a first polar end (37; 90) of vertical axis arranged above a horizontal plane (29; 100), the horizontal plane (29; 100) corresponding to a plane perpendicular to a vertical axis of the first polar end (37; 90); and at least a pair of two second polar ends (28A to 28D; 102; 102') arranged symmetrically on said horizontal plane with relation to at least a plane comprising a vertical axis, the generator further comprising coils (50A to 50D, 52A, 52B; 82) arranged so that each magnetic circuit portion connecting two of the at least three polar ends runs inside at least one coil, the coils being adapted to be connected to circuits configured to conduct currents of settable intensities and of selected directions therethrough.
Electronic unit, wherein the electronic unit being a DC-DC converter, in particular for operating an inductive charging system for motor vehicles, having a housing within which a power electronics unit having at least one power electronics element is arranged, having a first interface in order to connect the electronic unit electrically at least indirectly to a coil unit, having a second interface in order to connect the electronic unit at least indirectly electrically to a vehicle battery, and having a cooling device which is suitable and intended for cooling the power electronics unit, wherein the cooling device extending at least in sections between components of the power electronics unit, and the cooling device extending completely through the power electronics unit in at least one direction and projecting beyond the power electronics unit on both sides in a longitudinal direction of the housing, wherein the power electronics unit being arranged symmetrically with respect to a predetermined plane of symmetry, wherein the plane of symmetry running through the longitudinal direction of the cooling device, the electronics unit thus being arranged symmetrically around the cooling device, and the cooling device extending at least in sections between the first interface and the second interface, wherein the electronic unit is arranged symmetrically around the cooling device, wherein the first interface and the second interface are arranged adjacent to each other and in the region of a certain wall so that they are contacted from the same side in each case, characterized in that the first interface and the second interface are symmetrical with respect to the plane of symmetry.
A curing catalyst for epoxy resin, comprising an epoxy imidazole adduct having structural formula below: (wherein R 1 is a group selected from hydrogen, phenyl, and C1-C17 alkyls, and R 2 and R 3 are each independently a group selected from hydrogen and C1-C6 alkyls).
A fan, in particular radial or axial fan, with an impeller and with a pre-guide device in the flow path in front of the impeller, wherein the pre-guide device is designed as a pre-guide grid with webs (2, 3), wherein the the pre-guide grid is arranged in the flow path upstream of an inlet nozzle, characterized in that the webs are arranged and shaped such that, with an essentially swirl-free flow is deflected in the circumferential direction so that a swirl is generated against the swirl is generated against the direction of rotation of the impeller (12, 13), and wherein the entire passage area for the air at the guide vanes is at least of a factor 2 larger than the smallest passage area in the inlet nozzle in front of the impeller (12, 13).
A positive electrode active material for a non-aqueous electrolyte secondary battery, comprising a primary particle of a lithium-nickel composite oxide represented by the following general formula, and a secondary particle comprising an aggregate of the primary particles, wherein the primary particle has a fine particle containing W and Li on its surface, and the length of c-axis of the crystal of the lithium-nickel composite oxide is 1.4183 nm or more as determined by a Rietveld analysis of X-ray diffraction, (Chem. 1) General formula: Li bN i 1-y Co x M y O 2 wherein M is at least one element selected from Mg, Al, Ca, Ti, V, Cr, Mn, Nb, Zr and Mo, b is a numeral satisfying 0.95 ≤ b ≤ 1.03, x is a numeral satisfying 0 < x ≤ 0.15, y is a numeral satisfying 0 < y ≤ 0.07, and the sum of x + y is a numeral satisfying x + y ≤ 0.16.
A liquid adhesive composition comprising - 10-50% (w/w) of a partly hydrolyzed protein component, having a degree of hydrolysis in the range 0.2 - 2, measured by the "pH stat" method; - a metal silicate component; and - optionally, an exogenic protein hydrolyzing component; wherein the liquid adhesive composition has a solid content in the range 15-80% by weight. - 10-50% (w/w) of a partly hydrolyzed protein component, having a degree of hydrolysis in the range 0.2 - 2, measured by the "pH stat" method; - a metal silicate component; and - optionally, an exogenic protein hydrolyzing component;