mhurhangee/ep-ind-claims huggingface dataset:
Enclosure assembly for an electrical connector, comprising a housing body providing an interior space, at least one catch for positively locking the housing body to a further connector element, and a locking element for blocking the catch in a locking position, wherein the locking element is arranged slidably with respect to and between both the housing body and the catch from an unlocking position into the locking position, characterised in that the locking element at least in sections can be swivelled from the locking position into a secured position, wherein movements of the locking element back to the unlocking position are inhibited.
A display device comprising: an image display module including a display area configured to display an image and a non-display area adjacent to the display area; and an edge display module configured to display an image on a bezel area overlapping the non-display area, wherein the edge display module comprises: a flexible printed circuit board, FPCB, including a first cover part covering a corresponding non-display area, a second cover part extending from the first cover part and disposed on a side surface of the image display module, and a third cover part extending from the second cover part; and a dot light source array including a plurality of dot light source devices provided in the first cover part; wherein the edge display module further comprises a light guider provided in the first cover part to surround a side surface of each of the plurality of dot light source devices, characterized in that the FPCB comprises: a first rigid area corresponding to the first cover part; and a second rigid area corresponding to the third cover part. a flexible printed circuit board, FPCB, including a first cover part covering a corresponding non-display area, a second cover part extending from the first cover part and disposed on a side surface of the image display module, and a third cover part extending from the second cover part; and a dot light source array including a plurality of dot light source devices provided in the first cover part; wherein the edge display module further comprises a light guider provided in the first cover part to surround a side surface of each of the plurality of dot light source devices, characterized in that the FPCB comprises: a first rigid area corresponding to the first cover part; and a second rigid area corresponding to the third cover part. a first rigid area corresponding to the first cover part; and a second rigid area corresponding to the third cover part.
An elevator control system characterised by comprising: ten-key buttons which are provided in at least one of an elevator car and an elevator hall and to which figures are assigned; a button failure detecting device which detects an ON failure of the ten-key button; and a button input processing device which sends out information corresponding to the figure assigned to a pressed ten-key button when the ON failure of the ten-key button is not detected, makes the input of an ON failed ten-key button invalid when the ON failure of the ten-key button is detected, assigns the destination direction of the car to a ten-key button which is not ON failed, and sends out information corresponding to the car destination direction assigned to the pressed ten-key button which is not ON failed. ten-key buttons which are provided in at least one of an elevator car and an elevator hall and to which figures are assigned; a button failure detecting device which detects an ON failure of the ten-key button; and a button input processing device which sends out information corresponding to the figure assigned to a pressed ten-key button when the ON failure of the ten-key button is not detected, makes the input of an ON failed ten-key button invalid when the ON failure of the ten-key button is detected, assigns the destination direction of the car to a ten-key button which is not ON failed, and sends out information corresponding to the car destination direction assigned to the pressed ten-key button which is not ON failed.
The method of immobilization of silver nanoparticles on solid substrates characterized by that the immobilization occurs in two steps, where in the first step the selected substrate is modified by polyethylenimine with branched structure by a simple submerging of the selected substrate to a bath consisting of aqueous solution of this polymer and then, the excess is washed off the substrate surface after its removal from the bath and the modified PEI substrate is submerged in the second step to silver salt solution where the production of the nanoparticles proceeds due to reduction properties of the functional groups, -NH and -NH 2, present in the polymer and the nanoparticles remain covalently immobilized to the primary deposited adhesive PEI layer of polyethylenimine.
A gas turbine engine comprising: a casing; a rotor rotatable around a rotation axis relative the casing, the casing extending along and around the rotation axis, an axial direction defined parallel to the rotation axis, a vertical radial direction defined normal to the axial direction, the vertical radial direction extending from a bottom to a top, and a horizontal radial direction defined normal to both the axial direction and to the vertical radial direction; a first component mounted externally to the casing by a first mount, the first mount defining a torsion axis extending along the vertical radial direction, a first side and a second side defined relative the torsion axis in opposite directions along the horizontal radial direction, the first component having a center of gravity located on the first side of the torsion axis; a second component mounted externally to the casing on the second side, extending along the vertical radial direction from a bottom portion of the second component to a top portion of the second component, a second mount connecting the bottom portion of the second component to the casing; characterised by a structure connecting the top portion of the second component to at least one of the first component and the first mount, on the second side of the torsion axis, wherein the structure is more elastically flexible in the axial direction than in the horizontal radial direction, and has an end freely slidable along the vertical radial direction. a casing; a rotor rotatable around a rotation axis relative the casing, the casing extending along and around the rotation axis, an axial direction defined parallel to the rotation axis, a vertical radial direction defined normal to the axial direction, the vertical radial direction extending from a bottom to a top, and a horizontal radial direction defined normal to both the axial direction and to the vertical radial direction; a first component mounted externally to the casing by a first mount, the first mount defining a torsion axis extending along the vertical radial direction, a first side and a second side defined relative the torsion axis in opposite directions along the horizontal radial direction, the first component having a center of gravity located on the first side of the torsion axis; a second component mounted externally to the casing on the second side, extending along the vertical radial direction from a bottom portion of the second component to a top portion of the second component, a second mount connecting the bottom portion of the second component to the casing; characterised by a structure connecting the top portion of the second component to at least one of the first component and the first mount, on the second side of the torsion axis, wherein the structure is more elastically flexible in the axial direction than in the horizontal radial direction, and has an end freely slidable along the vertical radial direction.
Piston rod unit for a hydraulic cylinder, comprising - at least one piston-side end piece, and - east one rod-eye-side end piece, - a hollow piston rod, which is arranged between the end pieces (3, 4), wherein a cavity formed in the piston rod extends at least into at least one of the end pieces (3, 4), wherein a plug (7, 7a, 7b) is inserted into the cavity, which supports the piston rod and/or one of the end pieces (3, 4) on the cavity side, wherein the plug (7, 7a, 7b) supports the piston rod in a connection region to one of the end pieces (3, 4) through which the cavity extends, wherein a welded joint is formed in the connection region between the piston rod and one of the end pieces (3, 4), characterised in that the plug (7, 7a, 7b) covers the region of the weld joint on the cavity side when viewed in the axial direction of the piston rod. - at least one piston-side end piece, and - east one rod-eye-side end piece, - a hollow piston rod, which is arranged between the end pieces (3, 4), wherein a cavity formed in the piston rod extends at least into at least one of the end pieces (3, 4), wherein a plug (7, 7a, 7b) is inserted into the cavity, which supports the piston rod and/or one of the end pieces (3, 4) on the cavity side, wherein the plug (7, 7a, 7b) supports the piston rod in a connection region to one of the end pieces (3, 4) through which the cavity extends, wherein a welded joint is formed in the connection region between the piston rod and one of the end pieces (3, 4),
A process for the separation of a mixture of diastereoisomers of (6R,S)-5-methyltetrahydrofolic acid or an alkali metal salt thereof comprising the reaction of the mixture in water with at least one organic base selected from the group consisting of 1-phenylethylamine, 1-p-nitrophenylethylamine, 1-p-chlorophenylethylamine, 1-p-methylphenylethylamine, 1-p-methoxyphenylethylamine, 1-(1-naphthyl)ethylamine, 1-(2-naphthyl)ethylamine, either in a (R,S)- or - or - configuration, so to obtain the corresponding amine salt, and the recovering of a diastereoisomer, the latter being the corresponding natural diastereoisomer substantially pure.
A method of processing a mixture in an extruder or injection molder, the method comprising melting a solid thermoplastic resin to form a molten resin, melt-mixing the molten resin and surface-modified nanoparticles to form the mixture, and extruding or injection molding the mixture, wherein the mixture comprises 0.5 to 10 wt.%, inclusive, of the surface-modified nanoparticles, wherein the presence of the surface-modified nanoparticles reduces the force required to process the mixture.
Wave energy recovery apparatus with a power-take-off arrangement comprising at least a base, a reciprocating panel capable of rotating in one direction and in an opposite direction, two power-take-off units each PTO unit comprising one or more generators to convert kinetic energy of waves or tidal currents to electricity, at least two gear transmissions and at least two one-way clutch mechanisms where the gear transmissions and one-way clutch mechanisms are operatively connected between the panel and the generators, and the panel is arranged to rotate a half of the gear transmissions and generators when the panel is rotating into the one direction and another half of the gear transmissions and generators when the panel is rotating into the opposite direction characterized in that the apparatus comprises one or more tubular shafts that are fastened to a lower edge of the panel and are arranged to rotate along with the panel, and that each PTO unit is inside the one or more tubular shafts.
Wind wheel, comprising a main drive shaft, a wind turbine hub and blades each comprising two parts: a short root part (2, 3) with a device for connection and mounting of a circular bearing and a long wing part, characterized in that each blade comprises two parts: a short root part of the blade with an axial and sleeve sections, manufactured from steel, and a long wing part of the blade, manufactured from fiber glass; said short root part of the blade has an elbow bend located at the junction of said axial and sleeve sections at a distance of 1.5 - 4.5 meters or 20-25 cm from the mounting of said short root part of the blade to the hub whereas said elbow bend is disposed at a 30-45° angle contrary to the rotation of said wind wheel; said sleeve section has a cylindrical carcass that includes three bearing rings, connecting with said long wing part of the blade, which at its end contains a hollow steel cylindrical shaft with three cogs for mounting of hinges; said cylindrical shaft is connected to said long wing part of the blade by tightening bolts; said sleeve section of the blade contains hydraulic pitch mechanisms, connected with the end of said cylindrical shaft of said long wing part of the blade by means of eccentrics, ensuring pitch of the blade along its axis.
A cryogenic refrigeration system comprising: a refrigerator unit comprising an expansion unit; a variable speed compressor configured to compress refrigerant, said variable speed compressor being configured to receive refrigerant from said refrigerator unit via a lower pressure line and to supply compressed refrigerant to said refrigerator unit via a higher pressure line; and control circuitry configured to control said variable speed compressor to maintain a power consumption of said variable speed compressor below a predetermined threshold value, by during cooldown controlling said compressor to initially operate at a reduced frequency and later increasing a frequency of operation of said variable speed compressor such that said variable speed compressor operates at a higher frequency. a refrigerator unit comprising an expansion unit; a variable speed compressor configured to compress refrigerant, said variable speed compressor being configured to receive refrigerant from said refrigerator unit via a lower pressure line and to supply compressed refrigerant to said refrigerator unit via a higher pressure line; and control circuitry configured to control said variable speed compressor to maintain a power consumption of said variable speed compressor below a predetermined threshold value, by during cooldown controlling said compressor to initially operate at a reduced frequency and later increasing a frequency of operation of said variable speed compressor such that said variable speed compressor operates at a higher frequency.
Method of controlling a vacuum sewage system within a building or a marine vessel, which vacuum sewage system includes a vacuum unit, vacuum piping with a main pipe line and at least a branch pipe, a source of sewage (9, 91, 92, 93, 94), and a discharge valve between each source of sewage and the respective branch pipe, wherein the vacuum unit generates a predetermined vacuum level in the vacuum piping, in which method a running time of the vacuum unit is monitored, and in which method a vacuum level in the vacuum piping is monitored, wherein a first given reference value for the running time of the vacuum unit during a predetermined time period is determined, wherein the first given reference value corresponds to the situation where the vacuum sewage system is taken into use and is still intact, meaning, the vacuum system is without leakage and the vacuum piping is without blockage, after which the running time of the vacuum unit is monitored, and when the duration of the running time is short in comparison to the first given reference value, the vacuum level in the vacuum piping is monitored at least at two separate predetermined positions of the vacuum piping.
Welding device for electric seam welding, with a first electrode roller and a second electrode roller, wherein the welding path of the device for the objects to be welded lies between the electrode rollers and wherein a common wire electrode which adopts a predefined wire path in the device, runs on the electrode rollers, wherein the second electrode roller is driven by an own drive for rotating with the adjustable nominal welding speed, wherein three driving stages (4, 10, 20) are provided for the wire electrode in addition to the drive of the wire electrode by the driven electrode roller, in such a way that the first drive stage acts upon the wire electrode in the path of the wire before the first electrode roller, that the second drive stage acts upon the wire electrode in the path of the wire between the first electrode roller and the second electrode roller and that the third drive stage acts upon the wire electrode in the path of the wire after the second electrode roller, characterized in that at least two of the drive stages (4, 10, 20) have a common drive motor for the drive of the wire electrode, and particularly in that all three drive stages have a common drive motor for the drive of the wire electrode, in that the drive stages (4, 10, 20) have each at least a drive roller for the drive of the wire electrode, around which the wire electrode is partly or entirely wound, and in that the drive rollers of the drive stages have different diameters, wherein the drive roller of the first drive stage has a smaller diameter than the drive roller of the second drive stage and the drive roller of the third drive stage has a larger diameter than the drive roller of the second drive stage.
Energy distribution system for heating or cooling a space, at least partly, by means of fluid distribution for heat exchange between distributed fluid and at least a part of the space, comprising - at least one first distributor comprising a main inlet adapted for receiving heating or cooling fluid by means of a fluid inlet for fluid inflow, - at least one second distributor comprising a main outlet adapted for discharging heating or cooling fluid by means of a fluid return outlet for fluid outflow, and - tubing connected between outlets (13, 13', X, X') of the first distributor and inlets (23, 23', X", X′′′) of the second distributor to create a fluid flow path between the distributors to enable exchange of heat between the heating or cooling fluid flowing through the tubing laid out in the space and the space, characterised in that the tubing comprises tubes of substantially same length, and that at least one distributor (10, 20) comprises at least one rail (11, 21) arranged inside the distributor, the rail being configured to compensate varying pressure in the fluid flow through the distributor by decreasing its inner volume in the fluid flow direction from its first in- or outlet (12, 13, 23) to its last in- or outlet (22, X, X') in relation to the size of each in- or outlet, and that the rail (11, 21) is at least partly movable inside the distributor (10, 20) by means of a mechanism in a direction towards or from the in- or outlets (13, 13', 23, 23', X, X', X", X′′′) of the distributor to decrease the inner distributor volume in response to pressure varying from the first in- or outlet (12, 13, 23) to the last in- or outlet (22, X, X') of the distributor. - at least one first distributor comprising a main inlet adapted for receiving heating or cooling fluid by means of a fluid inlet for fluid inflow, - at least one second distributor comprising a main outlet adapted for discharging heating or cooling fluid by means of a fluid return outlet for fluid outflow, and - tubing connected between outlets (13, 13', X, X') of the first distributor and inlets (23, 23', X", X′′′) of the second distributor to create a fluid flow path between the distributors to enable exchange of heat between the heating or cooling fluid flowing through the tubing laid out in the space and the space, characterised in that the tubing comprises tubes of substantially same length, and that at least one distributor (10, 20) comprises at least one rail (11, 21) arranged inside the distributor, the rail being configured to compensate varying pressure in the fluid flow through the distributor by decreasing its inner volume in the fluid flow direction from its first in- or outlet (12, 13, 23) to its last in- or outlet (22, X, X') in relation to the size of each in- or outlet, and that the rail (11, 21) is at least partly movable inside the distributor (10, 20) by means of a mechanism in a direction towards or from the in- or outlets (13, 13', 23, 23', X, X', X", X′′′) of the distributor to decrease the inner distributor volume in response to pressure varying from the first in- or outlet (12, 13, 23) to the last in- or outlet (22, X, X') of the distributor.
A solid state lighting apparatus comprising: a circuit comprising a plurality of light emitting devices, wherein the light emitting devices are connected in series to form a string including an anode terminal at a first end of the string and a cathode terminal at a second end of the string; a first configurable shunt that is connected between a terminal of a first light emitting device in the string and one of the cathode or anode terminal of the string and configured to bypass at least some current around the first light emitting device; a second configurable shunt coupled between a terminal of a second light emitting device and a same end terminal of the string as the first configurable shunt and configured to bypass at least some current around the first light emitting device and the second light emitting device; and a thermistor and/or variable resistor (60B,70B) coupled between the same end terminal of the string as the first and second configurable shunts and the other one of the cathode or anode terminal of the string. a circuit comprising a plurality of light emitting devices, wherein the light emitting devices are connected in series to form a string including an anode terminal at a first end of the string and a cathode terminal at a second end of the string; a first configurable shunt that is connected between a terminal of a first light emitting device in the string and one of the cathode or anode terminal of the string and configured to bypass at least some current around the first light emitting device; a second configurable shunt coupled between a terminal of a second light emitting device and a same end terminal of the string as the first configurable shunt and configured to bypass at least some current around the first light emitting device and the second light emitting device; and a thermistor and/or variable resistor (60B,70B) coupled between the same end terminal of the string as the first and second configurable shunts and the other one of the cathode or anode terminal of the string.