mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle with an internal combustion engine for driving the motor vehicle and having a low voltage vehicle electrical system, wherein the internal combustion engine is a component of a hybrid drive with an electrical drive motor designed for driving the motor vehicle and wherein at least one electrical low voltage load is connected to the low voltage vehicle electrical system for an electrical supply, wherein an air-conditioning system, which comprises an electric motor, which is designed to drive a compressor of the air-conditioning system in order to compress cooling fluid, wherein a controllable coupling device is designed to mechanically couple the electric motor of the air-conditioning system to the internal combustion engine in dependence on a control signal, and wherein the electric motor is designed to drive the internal combustion engine as an electric starter in the state is coupled to the internal combustion engine for starting the internal combustion engine, wherein the motor vehicle has a high voltage vehicle electrical system, in which an electrical high voltage, which is more than 60 volts, is provided and wherein a control device of the hybrid drive is designed to operate the electrical drive motor of the hybrid drive without a starter reserve, which is needed for generating a mechanical torque to start the internal combustion engine, such that a difference between a maximum drive torque, which can be generated by the electrical drive motor, as intended and an actual drive torque generated by the drive motor for driving the motor vehicle is less than the mechanical torque needed to start the internal combustion engine, wherein if necessary the electrical drive motor, if the internal combustion engine has to be started, does not itself have to apply the mechanical torque for starting the internal combustion engine, but rather this is provided by the electric motor of the air-conditioning system, characterised in that an inverter of the electric motor of the air-conditioning system is designed to operate the electric motor directly with the electrical high voltage of the high voltage vehicle electrical system.
A method for operating a device that is operable to connect to a network, the method, performed in the device, comprising: requesting a Bootstrap data object from a node reachable via the network, the Bootstrap data object comprising an identification of a device management server; receiving a Bootstrap data object from a node reachable via the network; configuring a plurality of data objects on the device in accordance with the received Bootstrap data object; and requesting registration with the device management server identified in the received Bootstrap data object. requesting a Bootstrap data object from a node reachable via the network, the Bootstrap data object comprising an identification of a device management server; receiving a Bootstrap data object from a node reachable via the network; configuring a plurality of data objects on the device in accordance with the received Bootstrap data object; and requesting registration with the device management server identified in the received Bootstrap data object.
A method for manufacturing a steel plate by performing a hot rolling step, a hot correction step, and an accelerated cooling step in this order, the method further comprising: a descaling step in which jetting of descaling water is performed two or more times between the hot correction step and the accelerated cooling step, wherein, in the descaling step, energy density of the descaling water that is jetted to a surface of the steel plate is greater than or equal to 0.07 J/mm 2 in total for the jetting performed two or more times, final-descaling water is jetted after 0.5 s or more after jetting just-before-final-descaling water, and a surface temperature of the steel plate just before the final-descaling water is jetted is lower than or equal to a Ar 3 transformation point. a descaling step in which jetting of descaling water is performed two or more times between the hot correction step and the accelerated cooling step, wherein, in the descaling step, energy density of the descaling water that is jetted to a surface of the steel plate is greater than or equal to 0.07 J/mm 2 in total for the jetting performed two or more times, final-descaling water is jetted after 0.5 s or more after jetting just-before-final-descaling water, and a surface temperature of the steel plate just before the final-descaling water is jetted is lower than or equal to a Ar 3 transformation point.
A coupling assembly comprising: a first member having a first part including a fluid passageway that has an exit on a circumferential face of the first part; a second member having a second part including a fluid passageway that has an exit on a circumferential face of the second part, wherein the second member is able to be coupled to the first member by relative movement along a coupling direction, whereby when coupled, the fluid passageways form a fluid conduit through the coupling assembly with the exit to each passageway (114, 124) being in fluid communication; and characterised in that a single tension component is arranged outside of the formed fluid conduit and connected to the first and second members to carry and resist, in use, a tensile component in the coupling direction of a de-coupling force that acts to separate the first and second members and such that the first and second members are released upon failure of said single tension component; wherein the tension component is arranged to tie the first part to the second part such that the tension component is parallel to or coincident with the coupling direction. a first member having a first part including a fluid passageway that has an exit on a circumferential face of the first part; a second member having a second part including a fluid passageway that has an exit on a circumferential face of the second part, wherein the second member is able to be coupled to the first member by relative movement along a coupling direction, whereby when coupled, the fluid passageways form a fluid conduit through the coupling assembly with the exit to each passageway (114, 124) being in fluid communication; and characterised in that a single tension component is arranged outside of the formed fluid conduit and connected to the first and second members to carry and resist, in use, a tensile component in the coupling direction of a de-coupling force that acts to separate the first and second members and such that the first and second members are released upon failure of said single tension component; wherein the tension component is arranged to tie the first part to the second part such that the tension component is parallel to or coincident with the coupling direction.
A combined dermabrasion and skin massage handpiece; handpiece comprising actuating means (22, 23), a head (T1, T2, T3, T4, T5) provided with at least one abrasive element and a joint adapted to impress on the head (T1, T2, T3, T4, T5) a first oscillatory movement about a first axis (b); wherein the joint further impresses on said abrasive element a second oscillatory movement about a plane perpendicular to said first axis (b) to obtain skin micro-massages; the handpiece is characterised in that said joint comprises a ball tightened between a first support and a second support, said first support being turned by an element presenting a second axis (a) offset by an eccentricity (e) with respect to said first axis (b), said eccentricity (e) being adapted to produce an orbital movement of the head (T1, T2, T3, T4, T5) on the skin.
A wall cladding element, comprising a1) at least one insulating layer having an outer and an opposite inner side surface, a lower edge and an opposite upper edge as well as a first side edge and an opposite second side edge, b1) a plurality of spaced-apart support structures, which is an integral part of the insulating layer on the outside surface and which extends on the outside surface from the lower edge of the insulating layer to the upper edge, c1) at least one cover layer having an outer and an opposite inner side surface, a lower edge and an opposite upper edge as well as a first side edge and an opposite second side edge, which is connected to the plurality of spaced-apart support structures, and d1) a plurality of ventilation ducts, formed by the spaced-apart support structures and the cover layer connected to these support structures, wherein the ventilation ducts extend on the outside surface from the lower edge of the insulating layer to the upper edge and the ventilation ducts have a first ventilation opening on the lower edge of the insulating layer and have a second ventilation opening on the upper edge, characterized in that the insulating layer comprises a natural insulation panel or consists hereof, formed from renewable raw materials selected from the group consisting of wood fibers, hemp fibers, flax fibers, nettle fibers, seaweed, elephant grass, miscanthus, reeds, coconut fibers, straw and any mixture of the aforementioned renewable raw materials. a1) at least one insulating layer having an outer and an opposite inner side surface, a lower edge and an opposite upper edge as well as a first side edge and an opposite second side edge, b1) a plurality of spaced-apart support structures, which is an integral part of the insulating layer on the outside surface and which extends on the outside surface from the lower edge of the insulating layer to the upper edge, c1) at least one cover layer having an outer and an opposite inner side surface, a lower edge and an opposite upper edge as well as a first side edge and an opposite second side edge, which is connected to the plurality of spaced-apart support structures, and d1) a plurality of ventilation ducts, formed by the spaced-apart support structures and the cover layer connected to these support structures, wherein the ventilation ducts extend on the outside surface from the lower edge of the insulating layer to the upper edge and the ventilation ducts have a first ventilation opening on the lower edge of the insulating layer and have a second ventilation opening on the upper edge, characterized in that
A hand held olfactory tester comprising: an elongated housing having a forward portion and a rear portion, the forward portion being substantially hollow and including an opening adjacent the forward most end thereof; an odorant chamber located within said forward portion and containing an odorant therein, said odorant chamber having a nozzle at the forward end thereof and being moveable axially between a forward position and a backward position within said housing; a wick having a rear end located within said odorant chamber and a forward end extending forwardly thereof into said nozzle; means for moving said odorant chamber along with said wick between said forward and backward positions, said moving is located on the exterior of said housing and is engagable by a person holding said housing; means for biasing said odorant chamber backwardly into its backward position; said forward end of said wick being exposed to the outside of said housing through said nozzle and through said opening in said housing when said odorant chamber and said wick are moved into their forward position so that vapors from the odorant that had been wicked to the forward end of said wick can be smelled by a patient, and means for sealing (40, 42) the forward end of said wick from the outside of said housing when said wick is in its backward position to prevent vapors from escaping from said housing, said sealing means including an O-ring located between the forward end of said nozzle and said forward most end of said housing. an elongated housing having a forward portion and a rear portion, the forward portion being substantially hollow and including an opening adjacent the forward most end thereof; an odorant chamber located within said forward portion and containing an odorant therein, said odorant chamber having a nozzle at the forward end thereof and being moveable axially between a forward position and a backward position within said housing; a wick having a rear end located within said odorant chamber and a forward end extending forwardly thereof into said nozzle; means for moving said odorant chamber along with said wick between said forward and backward positions, said moving is located on the exterior of said housing and is engagable by a person holding said housing; means for biasing said odorant chamber backwardly into its backward position; said forward end of said wick being exposed to the outside of said housing through said nozzle and through said opening in said housing when said odorant chamber and said wick are moved into their forward position so that vapors from the odorant that had been wicked to the forward end of said wick can be smelled by a patient, and means for sealing (40, 42) the forward end of said wick from the outside of said housing when said wick is in its backward position to prevent vapors from escaping from said housing, said sealing means including an O-ring located between the forward end of said nozzle and said forward most end of said housing.
Filter device, in particular for a liquid medium, such as for example a cooling medium in a cooling circuit of a fuel-cell system, having: a support structure which extends between a first end and a second end and which defines an interior space tapering from the first end to the second end, wherein, at the second end, the support structure has a flow body which projects into the interior space in the direction of the first end and which tapers in the direction of the first end, and wherein the support structure has passages which connect the interior space to surroundings of the support structure in a fluidically conducting manner; and a filter medium which is accommodated in the interior space of the support structure, characterized in that the filter device additionally has a line body which, at the first end, projects into the interior space of the support structure and which defines a flow channel extending between an inlet opening and an outlet opening; wherein the outlet opening is situated directed towards the interior space of the support structure; and wherein the flow channel has an outlet portion which widens, in particular conically widens, to the outlet opening. a support structure which extends between a first end and a second end and which defines an interior space tapering from the first end to the second end, wherein, at the second end, the support structure has a flow body which projects into the interior space in the direction of the first end and which tapers in the direction of the first end, and wherein the support structure has passages which connect the interior space to surroundings of the support structure in a fluidically conducting manner; and a filter medium which is accommodated in the interior space of the support structure, characterized in that the filter device additionally has a line body which, at the first end, projects into the interior space of the support structure and which defines a flow channel extending between an inlet opening and an outlet opening; wherein the outlet opening is situated directed towards the interior space of the support structure; and wherein the flow channel has an outlet portion which widens, in particular conically widens, to the outlet opening.
A composite made up of a plastics material and a fabric of reinforcing fibers embedded in the plastics material, the composite being characterized by the fact that the fibers of the fabric and the plastics material are selected in such a manner that when the composite is at rest, the fibers are bonded to the plastics material, and that on stress above a certain level being applied to the composite, the fibers separate from the plastics material over a certain length, without breaking, composite in which the fibers of the fabric are fibers that have been subjected to treatment by sizing.
A fine grained austenitic stainless steel sheet exhibiting excellent stress corrosion cracking resistance and formability, the steel sheet comprising: in terms of percent by mass, C: 0.05% or less Cr: 14 to 19%; Si: 2% or less; Mn: 4% or less; Ni: 5 to 8%; Cu: 4% or less; N: 0.1% or less; optionally one or more selected from a group consisting of Mo: 1% or less, V: 1% or less, B: 0.010% or less, Nb: 0.5% or less, Ti: 0.5% or less, rare earth elements: 0.5% or less, Al: 0.5% or less, Mg: 0.005% or less, and Ca: 0.005% or less; and with the remainder being Fe and unavoidable impurities, wherein steel components are included in a manner such that the following Md is in a range of -20 to 40, and an average grain size is in a range of 10 μm or less, an occupancy ratio of high angle grain boundaries having angles of 15° or more is in a range of more than 80% Md = 551 - 462 ⁢ C + N - 9.2 ⁢ Si - 8.1 ⁢ Mn - 13.7 ⁢ Cr - 29 ⁢ Ni - Cu - 18.2 ⁢ Mo. C: 0.05% or less Cr: 14 to 19%; Si: 2% or less; Mn: 4% or less; Ni: 5 to 8%; Cu: 4% or less; N: 0.1% or less; optionally one or more selected from a group consisting of Mo: 1% or less, V: 1% or less, B: 0.010% or less, Nb: 0.5% or less, Ti: 0.5% or less, rare earth elements: 0.5% or less, Al: 0.5% or less, Mg: 0.005% or less, and Ca: 0.005% or less; and with the remainder being Fe and unavoidable impurities, wherein steel components are included in a manner such that the following Md is in a range of -20 to 40, and an average grain size is in a range of 10 μm or less, an occupancy ratio of high angle grain boundaries having angles of 15° or more is in a range of more than 80% Md = 551 - 462 ⁢ C + N - 9.2 ⁢ Si - 8.1 ⁢ Mn - 13.7 ⁢ Cr - 29 ⁢ Ni - Cu - 18.2 ⁢ Mo.
A board, in particularly OSB board, comprising two cover layers as well as at least one core layer lying in between, wherein one or both cover layers are formed from cover layer particles consisting of Typha leaf mass, and wherein cover layer particles with a length of 3 - 15 cm, in particularly 7-10 cm, and cross sections of 2 × 2 mm to 6 × 8 mm, preferably 3 × 3 mm, are used, and wherein the at least one core layer i) consists of wood chips or contains them, or ii) or consists of Typha leaf material or contains it, wherein the Typha leaf materials used consist of leaves or leaf bundles, which in the direction of the leaf axis are cut into slices of 1 - 5 mm, preferably 2 - 3 mm. i) consists of wood chips or contains them, or ii) or consists of Typha leaf material or contains it, wherein the Typha leaf materials used consist of leaves or leaf bundles, which in the direction of the leaf axis are cut into slices of 1 - 5 mm, preferably 2 - 3 mm.
Container made from plastics material, which is manufactured using the blow moulding, filling and sealing (Blow-Fill-Seal) method and where the filling of said container, which is enclosed by a container wall (15, 20), is autoclavable, at least one shaping means (19, 21, 23, 25, 29, 33) being provided in the container wall (15, 20), said shaping means ensuring, despite a high filling level, that the container collapses so as to reduce its volume when the filling material is delivered by infusion without container ventilation, said container being rectangular in terms of its basic design and comprising wall parts (21, 23) protruding as shaping means on two opposite container wall sides, said wall parts being inclined conically towards one another in pairs to enclose a cone angle (ifa) of less than 120°, the side shoulder face sloping obliquely downwards as a further shaping means in the form of a wall triangle in the direction of the protruding wall parts defining the cone angle (ifa) from both end faces of said container and each container wall side to which it can be assigned, characterised in that a gently sloping depression is formed on its opposite container wall sides as a further shaping means, said depression running in a centre line along the longitudinal axis, ending at a distance from the base and dividing into two end lines at this point in the direction of the adjacent end faces, said end lines together enclosing an angle of attack (Awi) of 60°-130° at the point of transition to the centre line
An inflatable structure for use in packaging comprising: at least one flexible film defining one or more sidewalls (29, 30) forming an enclosed chamber; at least one one-way valve defined at least in part by the flexible film and configured to receive pressurized air to thereby inflate the enclosed chamber, wherein the one-way valve comprises a channel, an internal valve opening, and an external valve opening that is defined at least in part by edge portions (1127, 1128) of first and second layers of the flexible film that are formed by folding the flexible film, characterised in that a locator aperture is defined in the channel and is at least partially surrounded by a valve position retention seal in the channel sealing the flexible film defining the channel to the sidewalls defining the enclosed chamber. at least one flexible film defining one or more sidewalls (29, 30) forming an enclosed chamber; at least one one-way valve defined at least in part by the flexible film and configured to receive pressurized air to thereby inflate the enclosed chamber, wherein the one-way valve comprises a channel, an internal valve opening, and an external valve opening that is defined at least in part by edge portions (1127, 1128) of first and second layers of the flexible film that are formed by folding the flexible film, characterised in that a locator aperture is defined in the channel and is at least partially surrounded by a valve position retention seal in the channel sealing the flexible film defining the channel to the sidewalls defining the enclosed chamber.
A terminal apparatus comprising: a transmission controller which, in operation, is configured to control a transmission power of a sounding reference signal, SRS using a first offset value or a second offset value which is added to the transmission power of the SRS, the difference between a first lower limit value of the first offset value and a second lower limit value of the second offset value being same as a difference between a first upper limit value of the first offset value and a second upper limit value of the second offset value and a transmitter which, in operation, is configured to transmit the SRS using the controlled transmission power, wherein the SRS is a periodic SRS, P-SRS, or an aperiodic SRS, A-SRS, and both the first and the second offset values for the P-SRS are independent from both the first and the second offset values for the A-SRS, wherein a step width of the first offset value within a first offset setting range having the first lower limit value and a first upper limit value equals a step width of the second offset value within a second offset setting range having the second lower limit value and a second upper limit value. a transmission controller which, in operation, is configured to control a transmission power of a sounding reference signal, SRS using a first offset value or a second offset value which is added to the transmission power of the SRS, the difference between a first lower limit value of the first offset value and a second lower limit value of the second offset value being same as a difference between a first upper limit value of the first offset value and a second upper limit value of the second offset value and a transmitter which, in operation, is configured to transmit the SRS using the controlled transmission power, wherein the SRS is a periodic SRS, P-SRS, or an aperiodic SRS, A-SRS, and both the first and the second offset values for the P-SRS are independent from both the first and the second offset values for the A-SRS, wherein a step width of the first offset value within a first offset setting range having the first lower limit value and a first upper limit value equals a step width of the second offset value within a second offset setting range having the second lower limit value and a second upper limit value.