mhurhangee/ep-ind-claims huggingface dataset:
A supply charging device for a mobile device, the supply charging device comprising: a supply power connector having a housing extending between a front and a rear, the supply power connector having a mating end at the front, the housing having a flange configured to be mounted to a panel, the housing having a base configured to extend rearward from the flange through a panel cutout in the panel, the housing including power contact channels extending through the base, the housing including a guide member extending forward from the flange, the guide member configured to engage a guide feature of the mobile device to locate a receiver power connector of the mobile device relative to the supply power connector of the supply charging device, the supply power connector including power contacts received in the power contact channels; a mounting spring (250, 252, 254) coupled to the housing; characterized in that the supply charging device further comprises a retaining plate coupled to the rear of the housing, a panel gap being defined between the retaining plate and the rear of the housing configured to receive the panel between the flange and the retaining plate; the mounting spring (250, 252, 254) extending rearward of the flange, the mounting spring (250, 252, 254) is configured to be received in the panel cutout, the mounting spring (250, 252, 254) configured to engage the panel to allow the supply power connector to float relative to the panel within the panel cutout for aligning the mating end of the supply power connector with the receiver power connector. a supply power connector having a housing extending between a front and a rear, the supply power connector having a mating end at the front, the housing having a flange configured to be mounted to a panel, the housing having a base configured to extend rearward from the flange through a panel cutout in the panel, the housing including power contact channels extending through the base, the housing including a guide member extending forward from the flange, the guide member configured to engage a guide feature of the mobile device to locate a receiver power connector of the mobile device relative to the supply power connector of the supply charging device, the supply power connector including power contacts received in the power contact channels; a mounting spring (250, 252, 254) coupled to the housing; characterized in that the supply charging device further comprises a retaining plate coupled to the rear of the housing, a panel gap being defined between the retaining plate and the rear of the housing configured to receive the panel between the flange and the retaining plate; the mounting spring (250, 252, 254) extending rearward of the flange, the mounting spring (250, 252, 254) is configured to be received in the panel cutout, the mounting spring (250, 252, 254) configured to engage the panel to allow the supply power connector to float relative to the panel within the panel cutout for aligning the mating end of the supply power connector with the receiver power connector.
Signal-distributing device for measuring at least one wavelength shift, and comprising an arrayed-waveguide-grating demultiplexer (210; 610) configured in order to spatially separate the spectral contributions of an input optical signal (S E), and at least one receiving module (220 1; 220 2; 220 3; 620 i), each receiving module comprising a multimode interference coupler (221 1; 221 2; 221 3; 221 i, 421 i) and two output waveguides (222 1, 223 1; 222 2, 223 2; 222 3, 223 3; 222 i, 223 i; 422 i, 423 i; 622 i, 623 i), with the multimode interference coupler (221 1; 221 2; 221 3; 221 i, 421 i) located between the arrayed-waveguide-grating demultiplexer (210; 610) and the output waveguides (222 1, 223 1; 222 2, 223 2; 222 3, 223 3; 222 i, 223 i; 422 i, 423 i; 622 i, 623 i) and configured to distribute, to the two output waveguides, an optical signal originating from the arrayed-waveguide-grating demultiplexer, characterised in that said multimode interference coupler (221 1; 221 2; 221 3; 221 i; 421 i) is attached directly against the arrayed-waveguide-grating demultiplexer (210; 610) or separated therefrom by a taper-type adapter.
A method comprising: determining a source haptic effect associated with a source user interface device having a source haptic output device configured to output the source haptic effect; characterized in that the source haptic effect is determined by a target user interface device (100, 200, 320, 340) having a target haptic output device (240, 260), the method further comprising the steps of: determining a characteristic of the target user interface device; converting the source haptic effect to a target haptic effect, the conversion based at least in part on the characteristic of the target user interface device; and generating a haptic signal associated with the target haptic effect, the haptic signal configured to cause the target haptic output device to output the target haptic effect. determining a source haptic effect associated with a source user interface device having a source haptic output device configured to output the source haptic effect; characterized in that the source haptic effect is determined by a target user interface device (100, 200, 320, 340) having a target haptic output device (240, 260), the method further comprising the steps of: determining a characteristic of the target user interface device; converting the source haptic effect to a target haptic effect, the conversion based at least in part on the characteristic of the target user interface device; and generating a haptic signal associated with the target haptic effect, the haptic signal configured to cause the target haptic output device to output the target haptic effect. determining a characteristic of the target user interface device; converting the source haptic effect to a target haptic effect, the conversion based at least in part on the characteristic of the target user interface device; and generating a haptic signal associated with the target haptic effect, the haptic signal configured to cause the target haptic output device to output the target haptic effect.
A latent heat cold storage material configured to freezing preservation in a temperature range of -10°C or lower, the latent heat storage material comprising: water; a crystalline powder; and at least one inorganic salt, wherein the crystalline powder is formed of a compound having a saturated concentration of less than 7.0 wt% to an aqueous solution of the inorganic salt having a concentration of 25 wt% at 25°C, the crystalline powder is formed of at least one urea derivative selected from the group consisting of 1,3-diethylurea, 1,3-dibutylurea and 1,3-dicyclohexylurea; the inorganic salt includes sodium chloride and ammonium chloride or potassium chloride and ammonium chloride; and a concentration of the crystalline powder is more than a saturated concentration of the crystalline powder to the aqueous solution of the inorganic salt at 25°C. water; a crystalline powder; and at least one inorganic salt, wherein the crystalline powder is formed of a compound having a saturated concentration of less than 7.0 wt% to an aqueous solution of the inorganic salt having a concentration of 25 wt% at 25°C, the crystalline powder is formed of at least one urea derivative selected from the group consisting of 1,3-diethylurea, 1,3-dibutylurea and 1,3-dicyclohexylurea; the inorganic salt includes sodium chloride and ammonium chloride or potassium chloride and ammonium chloride; and a concentration of the crystalline powder is more than a saturated concentration of the crystalline powder to the aqueous solution of the inorganic salt at 25°C.
A multi-ply sack comprising an inner paper ply, an outer paper ply and plastic film arranged between the inner paper ply and the outer paper ply, wherein the outer paper ply is sized with at least one hydrophobic size, the Gurley porosity according to ISO 5636-5 of the inner paper ply is less than 10 s, the plastic film provides an substantially uninterrupted barrier for liquid water, moisture and air between the inner paper ply and the outer paper ply and the sack is configured to allow air to escape from an interspace between the inner paper ply and the plastic film through a top end of the sack during filling of the sack and wherein the top end of the sack is formed by folding and gluing the plies such that a portion of the top end is not sealed and air can escape from the interspace through the non-sealed portion during filling of the sack.
A system (100, 500, 600), comprising: a fuel level sensing probe inside a fuel tank; an exciter wire bundle configured to electrically connect the fuel level sensing probe to an electric power source outside the fuel tank, wherein the exciter wire bundle comprises an excitation wire and a grounded guard wire, and wherein the excitation wire and the grounded guard wire each comprise a resistive non-metallic wire; and a return signal wire bundle configured to electrically connect the fuel level sensing probe to a device configured to measure a quantity of fuel within the fuel tank by using a return signal from the fuel level sensing probe, wherein the return signal wire bundle comprises a return signal wire and a grounded guard wire, and wherein the grounded guard wire of the return signal wire bundle and the grounded guard wire of the exciter wire bundle are configured to shield the return signal wire from electromagnetic interference, and wherein the return signal wire and the grounded guard wire each comprise a resistive non-metallic wire. a fuel level sensing probe inside a fuel tank; an exciter wire bundle configured to electrically connect the fuel level sensing probe to an electric power source outside the fuel tank, wherein the exciter wire bundle comprises an excitation wire and a grounded guard wire, and wherein the excitation wire and the grounded guard wire each comprise a resistive non-metallic wire; and a return signal wire bundle configured to electrically connect the fuel level sensing probe to a device configured to measure a quantity of fuel within the fuel tank by using a return signal from the fuel level sensing probe, wherein the return signal wire bundle comprises a return signal wire and a grounded guard wire, and wherein the grounded guard wire of the return signal wire bundle and the grounded guard wire of the exciter wire bundle are configured to shield the return signal wire from electromagnetic interference, and wherein the return signal wire and the grounded guard wire each comprise a resistive non-metallic wire.
A motion sensor unit comprising a hemispherical lens assembly and a cylindrical cover carrying a plurality of openings on its side and including a sensor printed circuit board mounted with at least one passive infrared motion sensor thereon, and an internal masking mechanism, being disposed inside the motion sensor unit before and in the detection range of the passive infrared motion sensors, and moving suspendedly in a substantially linear direction, such that the passive infrared motion sensors are unblocked or blocked selectively, is characterised in which the internal masking mechanism is essentially L-shaped or inverted T-shaped, where opposite edges of two parallel vertical rack elements are geared with a space in between, and a horizontal element is arranged at the bottom of the two geared vertical rack elements, with a gear knob disposed in between the two geared vertical rack elements and being operable from an external adjustment knob through an adjustment opening on the cylindrical cover, whereby the horizontal element of the internal masking mechanism selectively unblocks or blocks the passive infrared motion sensors.
A data transmission method, characterized by: reusing, by a terminal, a first resource to transmit first data to a network side device, wherein the first data is data of a first service, the first resource is a resource in a second resource for transmitting second data, the second data is initial transmission data of a second service, a latency requirement of the first service is higher than a latency requirement of the second service; and retransmitting, by the terminal, third data on a third resource, wherein the third data is all or part of the second data, not waiting for the network side device to re-initiate scheduling of the second data; wherein before the terminal reuses the first resource to transmit first data, the method further comprises: receiving, by the terminal, a downlink control signaling DCI, wherein uplink scheduling grant in the DCI comprises configuration information for the second resource and the third resource, the configuration information comprises first configuration information and second configuration information, the first configuration information is used to configure the second resource to be a resource reusable by the first service, and the second configuration information is used to configure the third resource to be a resource for the terminal to self-schedule data. reusing, by a terminal, a first resource to transmit first data to a network side device, wherein the first data is data of a first service, the first resource is a resource in a second resource for transmitting second data, the second data is initial transmission data of a second service, a latency requirement of the first service is higher than a latency requirement of the second service; and retransmitting, by the terminal, third data on a third resource, wherein the third data is all or part of the second data, not waiting for the network side device to re-initiate scheduling of the second data; wherein before the terminal reuses the first resource to transmit first data, the method further comprises: receiving, by the terminal, a downlink control signaling DCI, wherein uplink scheduling grant in the DCI comprises configuration information for the second resource and the third resource, the configuration information comprises first configuration information and second configuration information, the first configuration information is used to configure the second resource to be a resource reusable by the first service, and the second configuration information is used to configure the third resource to be a resource for the terminal to self-schedule data.
An apparatus for drilling curved and straight sections of a wellbore, comprising: a drilling assembly comprising a lower section and an upper section, the drilling assembly including a drill bit at an end of the lower section that is rotatable by a drive arranged in the upper section of the drilling assembly, the drilling assembly being connected with its upper section to a drill pipe that is rotatable from a surface location, wherein the drilling assembly further includes: a transmission configured to transmit a rotational movement of the drive to the drill bit; and a deflection device between the upper section and the lower section that couples the upper section to the lower section, wherein the deflection device comprises a pivot member having a pivot member axis perpendicular to a longitudinal axis of the drilling assembly, the pivot member enabling a tilt of the lower section relative to the upper section about the pivot member axis when the drill pipe is rotationally stationary so that a curved section of the wellbore can be drilled through rotation of the drill bit by the drive; wherein rotating the drill pipe causes a reduction of the tilt between the upper section and the lower section to allow drilling of a straighter section of the wellbore. a transmission configured to transmit a rotational movement of the drive to the drill bit; and a deflection device between the upper section and the lower section that couples the upper section to the lower section, wherein the deflection device comprises a pivot member having a pivot member axis perpendicular to a longitudinal axis of the drilling assembly, the pivot member enabling a tilt of the lower section relative to the upper section about the pivot member axis when the drill pipe is rotationally stationary so that a curved section of the wellbore can be drilled through rotation of the drill bit by the drive; wherein rotating the drill pipe causes a reduction of the tilt between the upper section and the lower section to allow drilling of a straighter section of the wellbore.
Vacuum cleaning apparatus, comprising a vacuum cleaner having a mean power input of the smaller than 1200 W and a filter bag having a filtration efficiency of the filter bag material ψ of more than 60 %, wherein the vacuum cleaning apparatus has a quality factor with an empty filter bag Q W un defined by Q W un = h saug un / h fbar un × ψ where h saug un: vacuum according to EN 60312 of the vacuum cleaning apparatus with an empty filter bag in [kPa], h fbar un: vacuum in the filter bag-holding compartment with an empty filter bag in [kPa], and ψ: filtration efficiency of the filter bag material in [%] which is greater than 25, preferably greater than 30, and/or the vacuum cleaning apparatus has a quality factor with a partly filled filterbag Q w teil defined by Q W teil = h saug teil / h fbar teil × ψ where h saug teil: vacuum according to EN 60312 of the vacuum cleaning apparatus with a partly filled filter bag in [kPa], h gbar teil: vacuum in the filter bag-holding compartment with a partly filled filter bag in [kPa], and ψ: filtration efficiency of the filter bag material in [%] which is greater than 13, preferably greater than 15 and especialy preferably more than 17, and wherein the negative pressure h saug un is greater than 1,0 kPa and the negative pressure h saug teil is greater than 0,7 kPa. h saug un: vacuum according to EN 60312 of the vacuum cleaning apparatus with an empty filter bag in [kPa], h fbar un: vacuum in the filter bag-holding compartment with an empty filter bag in [kPa], and ψ: filtration efficiency of the filter bag material in [%] h saug teil: vacuum according to EN 60312 of the vacuum cleaning apparatus with a partly filled filter bag in [kPa], h gbar teil: vacuum in the filter bag-holding compartment with a partly filled filter bag in [kPa], and ψ: filtration efficiency of the filter bag material in [%]
A method of forming a medical device lead connection element, comprising: positioning an end portion of a lead filar to overlap a lead end connection element such that the positioning creates mutual interference between the lead filar and the lead end connection element, and forming an interference configuration, wherein the lead filar and the connection element form an angle in a range from 10° to 50°; and melting the end portion of the lead filar to form a weld joint and allow the end portion of the lead filar to move towards the end connection element, wherein the angle between the lead filar and the connection element is reduced by at least 10° or by at least 10%. positioning an end portion of a lead filar to overlap a lead end connection element such that the positioning creates mutual interference between the lead filar and the lead end connection element, and forming an interference configuration, wherein the lead filar and the connection element form an angle in a range from 10° to 50°; and melting the end portion of the lead filar to form a weld joint and allow the end portion of the lead filar to move towards the end connection element, wherein the angle between the lead filar and the connection element is reduced by at least 10° or by at least 10%.
Supply chamber for use in a device for applying a coating of hardenable plastic to an inner side of a wall of a tubular construction, for example a sewage pipe, which supply chamber is adapted to contain a hardenable plastic and to supply the hardenable plastic to a delivery head comprising an outlet for letting out the hardenable plastic from the delivery head, and which supply chamber comprises a flexible wall in the form of a flexible sleeve, wherein the supply chamber further comprises a rotatably arranged elongated element (22, 42) at least partially extending inside the supply chamber; characterized in that the supply chamber comprises a bearing which is positioned on a rotatable element inside the supply chamber, wherein the bearing is an open-type-bearing in which a chamber accommodating at least one ball of the bearing is at least partially open.
A human antibody, or a mixture, monomer or active fragment thereof which has: (i) a heavy chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 39, and a light chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 40; or, (ii) a heavy chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 41, and a light chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 42. (i) a heavy chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 39, and a light chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 40; or, (ii) a heavy chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 41, and a light chain variable domain comprising the CDR1, CDR2 and CDR3 region sequences as set forth in Figure 42.
Method for producing a stator for an electric machine, wherein a plurality of windings of a coil wire are applied onto stator teeth that project radially from an essentially hollow-cylindrical stator body by needle winding with a winding device (1, 47), wherein the winding device (1, 47) comprises a stator carrier and a wire guiding nozzle for guiding the coil wire to the stator body, wherein the stator body is fixed in a non-rotatable manner onto the stator carrier and the coil wire guided from the wire guiding nozzle is fixed onto the stator body and/or onto the stator carrier, after which the windings are wound onto the stator teeth, in that repeatedly alternating rotations of the stator carrier about an axis of rotation extending axially with respect to the stator body and displacements of the wire guiding nozzle for guiding the coil wire are guided through a respective groove extending between two of the stator teeth respectively, characterised in that the stator carrier comprises a plurality of holding devices (14, 64), wherein between at least two of the windings of the coil wire around the respective stator teeth the coil wire is guided radially away from the stator body by a displacement of the wire guiding nozzle, after which it is guided by a rotation of the stator carrier about the axis of rotation along an outer face of at least of one of the holding devices (14, 64) facing away from the stator body.
Pneumatic vehicle tyre comprising a tread with a contact area with respect to the carriageway, two bead regions each with a bead core, a first bead region comprising an electrically conductive bead part of an electrically conductive rubber mixture with a contact area with respect to the rim, a carcass, which is anchored by wrapping around the bead cores, two sidewalls, which each extend from a bead region axially on the outside along the carcass into the tread region and in the tread region are arranged axially outside the tread, and a strip of an electrically conductive rubber mixture, which contacts the bead part electrically conductively and extends between the carcass and the sidewall into the tread region and in the tread region runs axially between the tread and the sidewall, characterized in that the rubber mixture of the tread is of an electrically conductive form and in that the strip contacts the tread electrically conductively, whereby the strip connects the bead part and the tread electrically conductively to one another.