mhurhangee/ep-ind-claims huggingface dataset:
Rail vehicle with at least a first car body and a second car body, which are interconnected in a movable manner by means of at least one articulation (5, 11, 12), wherein the rail vehicle has an intercar gangway between the at least two car bodies (1, 2), which is substantially closed to the outside by means of a flexible enclosure (7, 14, 15), wherein the intercar gangway has at least one cable connection, wherein the at least one cable connection is connected to the at least two car bodies (1, 2) at at least one fastening point in each case, characterised in that the at least one cable connection is flexible, wherein the at least one cable connection assumes a relaxed normal state without being acted upon by tensile forces, wherein the at least one cable connection in the normal state sags downwards between the at least two fastening points on the at least two car bodies (1, 2) and wherein the at least one cable connection tenses itself under being acted upon by tensile forces of the at least one first car body and/or the at least one second car body as a function of the magnitude of the acting tensile forces, wherein the at least one cable connection, in the maximally tensed state, runs in parallel with the direction of movement of the rail vehicle between the at least two fastening points on the at least two car bodies (1, 2).
Martensitic stainless steel having excellent corrosion resistance consisting of: by mass%, C: 0.40% to 0.50%; Si: 0.25% to 0.60%; Mn: 2.0% or less; P: 0.035% or less; S: 0.010% or less; Cr: 11.0% to 15.5%; Ni: 0.01% to 0.60%; Cu: 0.50% or less; Mo: 0.10% or less; Sn: 0.005% to 0.10%; V: 0.10% or less; Al: 0.03% or less; N: 0.01% to 0.05%; and optionally one or more of: Nb: 0.005% to 0.05%; Ti: 0.005% to 0.05%; Zr: 0.005% to 0.05%; and B: 0.0005% to 0.0030%, and a remainder including Fe and inevitable impurities, wherein amounts of C, N, and Sn satisfy Expression: S value = 16 × Sn / C + 2 × N / C ≥ 0.40 in which C, N, and Sn in the above expression represent amounts thereof (by mass%), respectively. C: 0.40% to 0.50%; Si: 0.25% to 0.60%; Mn: 2.0% or less; P: 0.035% or less; S: 0.010% or less; Cr: 11.0% to 15.5%; Ni: 0.01% to 0.60%; Cu: 0.50% or less; Mo: 0.10% or less; Sn: 0.005% to 0.10%; V: 0.10% or less; Al: 0.03% or less; N: 0.01% to 0.05%; and optionally one or more of: Nb: 0.005% to 0.05%; Ti: 0.005% to 0.05%; Zr: 0.005% to 0.05%; and B: 0.0005% to 0.0030%, and Nb: 0.005% to 0.05%; Ti: 0.005% to 0.05%; Zr: 0.005% to 0.05%; and B: 0.0005% to 0.0030%, and a remainder including Fe and inevitable impurities, wherein amounts of C, N, and Sn satisfy Expression: S value = 16 × Sn / C + 2 × N / C ≥ 0.40 in which C, N, and Sn in the above expression represent amounts thereof (by mass%), respectively.
: A method of servicing a brake system, comprising: (a) moving an actuator of the brake system from a first position to a second position; (b) conducting a manual operation on the brake system when or after the actuator reaches the second position; and (c) after completing the manual operation, moving the actuator to a third position; characterized in that the second position is a position of the actuator located between the first position and the third position. (a) moving an actuator of the brake system from a first position to a second position; (b) conducting a manual operation on the brake system when or after the actuator reaches the second position; and (c) after completing the manual operation, moving the actuator to a third position;
X-ray imaging system comprising a mobile base, a motorized arm, a C-arm adapted to be mounted on the mobile base by means of the motorized arm, and a control unit adapted to control an actuation of the mobile base and/or the motorized arm, wherein the C-arm comprises an X-ray source and an X-ray detector, wherein the motorized arm presents at least three rotation axes (Z1, Z2, Z3) directed along a substantially common vertical direction, the system being characterized in that it further comprises a sensor adapted to measure a force and/or torque applied by a user on the motorized arm and/or the C-arm, and that the control unit comprises a cooperative mode, wherein in the cooperative mode, the control unit is adapted to control a movement of the motorized arm in response to the force and/or torque detected by the sensor. wherein the C-arm comprises an X-ray source and an X-ray detector, wherein the motorized arm presents at least three rotation axes (Z1, Z2, Z3) directed along a substantially common vertical direction, the system being characterized in that it further comprises a sensor adapted to measure a force and/or torque applied by a user on the motorized arm and/or the C-arm, and that the control unit comprises a cooperative mode, wherein in the cooperative mode, the control unit is adapted to control a movement of the motorized arm in response to the force and/or torque detected by the sensor.
A method of stabilizing a grid projected from a grid generator of a relative navigation system, with the grid generator defining a reference frame, the method comprising: repeatedly projecting into space from the grid generator a plurality of lines defining a grid (42, 44), with the lines encoded with grid data configured to identify predetermined points on the grid (42, 44); between a prior grid projection and a subsequent grid projection of the repeated grid projections, determining a change in a reference frame of the grid generator relative to the prior grid projection; and based on the determined change, altering the grid data of the subsequent grid projection such that the grid appears stabilized in space to a detector module of a moveable object, which may detect the grid and maneuver itself based upon the detected grid. repeatedly projecting into space from the grid generator a plurality of lines defining a grid (42, 44), with the lines encoded with grid data configured to identify predetermined points on the grid (42, 44); between a prior grid projection and a subsequent grid projection of the repeated grid projections, determining a change in a reference frame of the grid generator relative to the prior grid projection; and based on the determined change, altering the grid data of the subsequent grid projection such that the grid appears stabilized in space to a detector module of a moveable object, which may detect the grid and maneuver itself based upon the detected grid.
A cable management device comprising: a first cable management arm; a second cable management arm; a cable management seat pivotably connected between the first and second cable management arms (10, 12); an extension board fixed to the cable management seat; a support seat having a support board; a first connection element connected to the first cable management arm; a second connection element connected to the second cable management arm; a third connection element connected to the support seat; characterized in that the cable management device is connected to a first slide assembly and a second slide assembly; the first cable management arm is connected to the first slide assembly by the first connection element; the second cable management arm is connected to the first slide assembly by the second connection element; and the support seat is connected to the second slide assembly by the third connection element; and wherein a first support member has a first connecting end and a first free end which is located corresponding to the first connecting end, the first support member is pivotably connected to the support seat by the first connecting end, the first support member contacts the support board of the support seat; a second support member has a second connecting end and a second free end which is located corresponding to the second connecting end, the second support member is slidably connected to the first support member so as to extend relative to the first support member to move the second free end away from the first support member, the second free end has a guide member which is extended therefrom and located between the first and second cable management arms (10, 12); a first resilient member is connected between the first and second support members (24, 26) so as to provide a pull force to the second support member; and a slide is pivotably connected to the extension board and slidably connected to the second support member; wherein, the first cable management arm is connected to a stationary first position by the first connection element, the second cable management arm is connected to a changeable second position by the second connection element, the support seat is connected to a stationary third position by the third connection element, when the second connection element of the second cable management arm is moved away from the first connection element of the first cable management arm, the cable management seat slides along the second support member by the slide and moves away from the support seat, the slide contacts the guide member and extends the second support member relative to the first support member so as to swing the first support member relative to the support seat.
Heat exchanger for a refrigerated cabinet with a fin stack forming a flow channel and an electric defrost heater, wherein the defrost heater comprises a sheet-type heating element adjoining the flow channel and extending at least in sections parallel thereto, which is connected in a heat-conducting manner to adjacent end sections of the fins, the side of the sheet-type heating element opposite the fins being covered with a heat insulation, characterized in that the heat insulation has a heat-reflecting layer on the side facing the end sections of the fins.
Use - of a sensor interface for connecting a daylight sensor to an operating device for at least one lighting device - for outputting information relating to a current temperature measured in the operating device or in the surroundings thereof, - wherein the operating device changes independently to a temperature measuring and outputting operation when it detects that a temperature reading device instead of a daylight sensor has been connected to the sensor interface of the operating device. - of a sensor interface for connecting a daylight sensor to an operating device for at least one lighting device - for outputting information relating to a current temperature measured in the operating device or in the surroundings thereof, - wherein the operating device changes independently to a temperature measuring and outputting operation when it detects that a temperature reading device instead of a daylight sensor has been connected to the sensor interface of the operating device.
Respiratory therapy apparatus including a respiratory therapy device having a patient interface and a mechanism (101, 110, 111, 112) arranged to produce an oscillating resistance to expiratory flow through the device, wherein the therapy apparatus additionally includes an arrangement for generating a continuous flow of inspiratory respiratory gas to the patient, that the arrangement includes a gas inlet arranged to receive a supply of respiratory gas at elevated pressure and an air entrainment device arranged to receive gas from the inlet such as to entrain air and deliver a positive airway pressure to the patient interface.
An air filter cartridge comprising: (a) a z-filter media pack comprising fluted media secured to a facing media; (b) a shell having a portion circumscribing the media pack and including a housing seal support portion; (c) a housing seal arrangement including a housing seal portion secured to the housing seal support; and a media pack sealing portion circumscribing the media pack and sealing the shell to the media pack; (d) the z-filter media including a plurality of flutes (49, 51); each of having an upstream portion adjacent to an inlet flow face and a downstream portion adjacent to an outlet flow face; selected ones of the flutes being open at the upstream portion and closed at the downstream portion; and, selected ones of the flutes being closed at the upstream portion and open at the downstream portion; (e) the z-filter media pack has a cross section having opposite parallel sides extending between two, opposite, curved ends; and characterized in that (f) the housing seal support includes a plurality of seal flow apertures therein; (g) seal material extends through the seal flow apertures; wherein a side wall of the shell has adjacent its end an outward funnel transition portion, with the housing seal support comprising a radially outwardly directed seal support portion thereon. (a) a z-filter media pack comprising fluted media secured to a facing media; (b) a shell having a portion circumscribing the media pack and including a housing seal support portion; (c) a housing seal arrangement including a housing seal portion secured to the housing seal support; and a media pack sealing portion circumscribing the media pack and sealing the shell to the media pack; (d) the z-filter media including a plurality of flutes (49, 51); each of having an upstream portion adjacent to an inlet flow face and a downstream portion adjacent to an outlet flow face; selected ones of the flutes being open at the upstream portion and closed at the downstream portion; and, selected ones of the flutes being closed at the upstream portion and open at the downstream portion; (e) the z-filter media pack has a cross section having opposite parallel sides extending between two, opposite, curved ends; and (f) the housing seal support includes a plurality of seal flow apertures therein; (g) seal material extends through the seal flow apertures;
Massage device for the face including a body which contains an electrically-powered motor and a massage head, with installation mechanism located between the body and the massage head; said head includes an application surface and two massage wheels (7, 8) located along two first parallel longitudinal axes (X 1, X 2), which are separated and extend partially beyond the application surface, where the massage head includes, on the one hand, a transmission mechanism designed to be driven by the motor to cause the synchronized and inverse rotation of the two wheels so that, when seen in a plane perpendicular to two axes with the two wheels at the bottom, section of wheel located on the left which extends beyond the application surface, turns anti-clockwise and section of wheel located on the right which extends outside the application surface, turns clockwise and, on the other hand, a wheel spacing adjustment system, characterised in that the wheel spacing adjustment system is carried out under the action of forces placed on these wheels when they rotate, designed to initially create a minimum distance between the wheels and then to adjust the distance between them until a position of equilibrium of the forces on these wheels is reached.
Black colored polyurethane article comprising - at least one black coloring agent and - at least one toner compound, which comprises a triphenylmethane chromophore, and exhibits at least one absorption peak at a λ max between 560 and 610 nm within said article. - at least one black coloring agent and - at least one toner compound, which comprises a triphenylmethane chromophore, and exhibits at least one absorption peak at a λ max between 560 and 610 nm within said article.
An apparatus for removing a surface oxide of a metal material and feeding the metal material to a melting furnace, comprising: a housing including a material dropping chamber for feeding and discharging the metal material and a material etching chamber for performing a plasma etching process; and a pretreatment casing configured to reciprocate between the material dropping chamber and the material etching chamber in the housing, wherein the pretreatment casing is configured to receive the metal material from the material dropping chamber to store the metal material, move to the material etching chamber to plasma-etch a surface oxide layer of the stored metal material, and then return to the material dropping chamber to drop the etched metal material into the melting furnace. a housing including a material dropping chamber for feeding and discharging the metal material and a material etching chamber for performing a plasma etching process; and a pretreatment casing configured to reciprocate between the material dropping chamber and the material etching chamber in the housing, wherein the pretreatment casing is configured to receive the metal material from the material dropping chamber to store the metal material, move to the material etching chamber to plasma-etch a surface oxide layer of the stored metal material, and then return to the material dropping chamber to drop the etched metal material into the melting furnace.
A balun structure comprising: a monopole antenna (306, 402, 502, 602, 702, 802); and a microstrip (404, 504, 604, 704, 804) coupled to the monopole antenna (306, 402, 502, 602, 702, 802) and comprising a ground plane (438, 538, 638, 738, 838) including at least two arms (506a, 506b, 606a, 606b, 706a, 706b, 806a, 806b); characterized in that the microstrip (404, 504, 604, 704, 804) couples to the monopole antenna (306, 402, 502, 602, 702, 802) using a stepwise tapered microstrip feed (704, 804).
A method for wireless communications by a user equipment "UE", comprising: receiving radio resource control "RRC" signaling in an anchor resource block "RB" for narrowband communications with a base station "BS"; characterised by: determining a location of at least one additional RB for the narrowband communications with the BS based on a first indication of an absolute frequency location of the at least one additional RB and a second indication of whether the location of the at least one additional RB is an in-band location, a guard band location, or a standalone location, the first indication and second indication received via the RRC signaling in the anchor RB; and performing narrowband communications with the BS using at least one of: the anchor RB or the at least one additional RB. receiving radio resource control "RRC" signaling in an anchor resource block "RB" for narrowband communications with a base station "BS"; characterised by: determining a location of at least one additional RB for the narrowband communications with the BS based on a first indication of an absolute frequency location of the at least one additional RB and a second indication of whether the location of the at least one additional RB is an in-band location, a guard band location, or a standalone location, the first indication and second indication received via the RRC signaling in the anchor RB; and performing narrowband communications with the BS using at least one of: the anchor RB or the at least one additional RB. determining a location of at least one additional RB for the narrowband communications with the BS based on a first indication of an absolute frequency location of the at least one additional RB and a second indication of whether the location of the at least one additional RB is an in-band location, a guard band location, or a standalone location, the first indication and second indication received via the RRC signaling in the anchor RB; and performing narrowband communications with the BS using at least one of: the anchor RB or the at least one additional RB.
Furniture composition, comprising a first workstation having a first work surface which can be adjusted in a vertical direction, a second workstation having a second work surface which can be adjusted in the vertical direction independently of the first work surface, and a height-adjustable partition which is arranged so as to extend in the vertical direction between the first workstation and the second workstation, characterized in that a first support element (111, 112), by means of which the partition can be supported, is provided at the first work surface, and a second support element (211, 212), by means of which the partition can be supported, is provided at the second work surface. a first workstation having a first work surface which can be adjusted in a vertical direction, a second workstation having a second work surface which can be adjusted in the vertical direction independently of the first work surface, and a height-adjustable partition which is arranged so as to extend in the vertical direction between the first workstation and the second workstation, characterized in that a first support element (111, 112), by means of which the partition can be supported, is provided at the first work surface, and a second support element (211, 212), by means of which the partition can be supported, is provided at the second work surface.
An esterified cellulose ether i) comprising groups of the formula -C -CH 2 -CH 2 -COOH or a combination of acetyl groups and groups of the formula -C -CH 2 -CH 2 -COOH, ii) having a weight average molecular weight M w of up to 70,000 Dalton, iii) having a degree of neutralization of the groups -C -CH 2 -CH 2 -COOH of not more than 0.4, and iv) having a solubility in water of at least 2.0 weight percent at 2 °C. i) comprising groups of the formula -C -CH 2 -CH 2 -COOH or a combination of acetyl groups and groups of the formula -C -CH 2 -CH 2 -COOH, ii) having a weight average molecular weight M w of up to 70,000 Dalton, iii) having a degree of neutralization of the groups -C -CH 2 -CH 2 -COOH of not more than 0.4, and iv) having a solubility in water of at least 2.0 weight percent at 2 °C.
A sun visor assembly comprising a sun visor that is configured to rotate about a rod between a stowage position and a usage position wherein, for biasing the sun visor into the stowage position, the sun visor assembly comprises a spring cage and coil springs acting as rod biasing members, said coil springs being configured to urge the spring cage against the rod such that a contact surface of the spring cage is driven against the rod, wherein the contact surface of the spring cage is substantially flat and configured to interact with a substantially flat surface of the rod, wherein the substantially flat surfaces (66, 70) of the spring cage and the rod are configured to come in contact with one another such that the sun visor is biased into the stowage position, characterised in that the sun visor assembly further comprises a carriage, wherein the spring cage is configured to be disposed about a portion of the carriage, and wherein each coil spring is configured to be disposed between a respective spring support of the spring cage and a respective support surface of the carriage, wherein the rod is driven by the coil springs against a contact surface of the carriage, thereby compressing the rod between the contact surface of the spring cage and the contact surface of the carriage.
An actuator for at least one flight control surface (3.1, 3.2, 4.1, 4.2) of an aircraft, the actuator comprising at least two actuator members (30.1, 30.2) for actuating the flight control surface between two extreme positions and a motor connected to the actuator members by at least one rotary motion transmission line, each actuator member comprising a drive pinion (31.1, 31.2), and the motion transmission line is arranged to allow only one angular position between the drive pinions and the actuator member; characterized in that the actuator is arranged so that the transmission line has an angular amplitude of less than one revolution during movement of the flight control surface between its two extreme positions.
A method for balancing loads within a wireless network (1000, 2000, 3000) comprising: changing a power level of one or more beacon messages transmitted by one or more access points, APs, (a-c) in the network; and maintaining a power level of one or more data traffic channels of the APs. changing a power level of one or more beacon messages transmitted by one or more access points, APs, (a-c) in the network; and maintaining a power level of one or more data traffic channels of the APs.