mhurhangee/ep-ind-claims huggingface dataset:
An electricity discharge control device for controlling electricity discharge in an energy storage device (200, 210-217) of an energy storage system storing electricity and disposed in an electric vehicle (20, 1), the energy storage device being a secondary battery which is capable of charging electricity therein and also capable of discharging electricity therefrom, said electric vehicle being adapted to travel using the energy storage system as a power supply, the electricity discharge control device comprising: a) a first determination unit connected to an acceleration sensor and adapted to determine whether or not the acceleration of the electric vehicle is outside of a predetermined first range; and b) an electricity discharge controller adapted to start electricity discharge in the energy storage device, if it is determined by the first determination unit that the acceleration of the electric vehicle is outside of the first range, characterised in that the electricity discharge control device further comprises c) a second determination unit connected to a shock sensor adapted to detect a degree of a shock occurring during an accident of the vehicle, wherein said second determination unit, after the electricity discharge controller starts the electricity discharge in the energy storage device, is adapted to determine whether or not the degree of a shock detected by the shock sensor is smaller than a threshold value, and d) wherein the electricity discharge controller is adapted to stop the electricity discharge in the energy storage device, when the second determination unit determines that the degree of shock is smaller than the threshold value. a) a first determination unit connected to an acceleration sensor and adapted to determine whether or not the acceleration of the electric vehicle is outside of a predetermined first range; and b) an electricity discharge controller adapted to start electricity discharge in the energy storage device, if it is determined by the first determination unit that the acceleration of the electric vehicle is outside of the first range, characterised in that the electricity discharge control device further comprises c) a second determination unit connected to a shock sensor adapted to detect a degree of a shock occurring during an accident of the vehicle, wherein said second determination unit, after the electricity discharge controller starts the electricity discharge in the energy storage device, is adapted to determine whether or not the degree of a shock detected by the shock sensor is smaller than a threshold value, and d) wherein the electricity discharge controller is adapted to stop the electricity discharge in the energy storage device, when the second determination unit determines that the degree of shock is smaller than the threshold value.
A computer-implemented method of loading stored encryption key data from a protected non-volatile memory of an electronic portable device, comprising: a. initiating a boot loader program after the portable device is powered on; b. loading the encryption key data from the protected non-volatile memory of the portable device before an external communication interface of the portable device is initiated; c. disabling access to the protected non-volatile memory after a predetermined time has elapsed once the portable device is powered on; and d. subsequently initiating at least one external communication interface of the portable device. a. initiating a boot loader program after the portable device is powered on; b. loading the encryption key data from the protected non-volatile memory of the portable device before an external communication interface of the portable device is initiated; c. disabling access to the protected non-volatile memory after a predetermined time has elapsed once the portable device is powered on; and d. subsequently initiating at least one external communication interface of the portable device.
A steel H-shape for low temperature service, the steel comprising by mass%, C: 0.03% to 0.13%, Mn: 0.80% to 2.00%, Nb: 0.005% to 0.060%, Ti: 0.005% to 0.025%, O: 0.0005% to 0.0100%, V: 0% to 0.08%, Cu: 0% to 0.40%, Ni: 0% to 0.70%, Mo: 0% to 0.10%, Cr: 0% to 0.20%, Si: limited to 0.50% or less, Al: limited to 0.008% or less, Ca: limited to 0.0010% or less, REM: limited to 0.0010% or less, Mg: limited to 0.0010% or less, N: limited to 0.0120% or less, and a remainder being Fe and impurities, wherein a CEV obtained by the following Expression is 0.40 or less, wherein at a 1/4 position from an outer side across a thickness of a flange and a 1/6 position from an outer side across a flange width, a metallographic structure consists of a ferrite, a bainite, a hard phase, and, as a remainder, a pearlite, a sum of an area ratio of one or both of the ferrite and the bainite is 90% or more, and an area ratio of the hard phase is 10% or less, wherein an effective grain size is 20.0 μm or less, and a grain size of the hard phase is 10.0 μm or less, wherein the hard phase consists of one or both of a martensite-austenite constituent and a pseudo-pearlite, wherein the effective grain size is the equivalent circle diameter of a region surrounded by a large angle boundary having an orientation difference of 15° or greater, and the effective grain size is measured by electron backscattering diffraction pattern method without the ferrite, the bainite, the hard phase, and the pearlite being discriminated each other, wherein 30 to 100 pieces/mm 2 Ti oxides having an equivalent circle diameter ranging from 0.01 to 3.0 μm are included, and wherein a thickness of the flange is 12 to 50 mm, CEV = C + Mn / 6 + Cr + Mo + V / 5 + Ni + Cu / 15 where, C, Mn, Cr, Mo, V, Ni, and Cu each indicate an amount of the element by mass%. C: 0.03% to 0.13%, Mn: 0.80% to 2.00%, Nb: 0.005% to 0.060%, Ti: 0.005% to 0.025%, O: 0.0005% to 0.0100%, V: 0% to 0.08%, Cu: 0% to 0.40%, Ni: 0% to 0.70%, Mo: 0% to 0.10%, Cr: 0% to 0.20%, Si: limited to 0.50% or less, Al: limited to 0.008% or less, Ca: limited to 0.0010% or less, REM: limited to 0.0010% or less, Mg: limited to 0.0010% or less, N: limited to 0.0120% or less, and a remainder being
Actuator for a medium voltage circuit breaker or recloser with at least one movable contact with a contact stem, driven by an electromagnetic drive, and a spring, wherein the spring is positioned in the kinematic chain between the drive and the movable contact or contact stem, wherein the arrangement of movable contact and drive is furthermore coupled to means for the detection of a micromotion wherein the means for the detection of the micromotion are implemented in a signal device; characterized in that the signal device is configured to register the actual movability and availability of the drive by either: (i) in an OFF position of the circuit breaker or recloser, energising a coil of the drive for a closing operation and, as soon as micromotion of the drive is detected by the means for the detection of the micromotion, controlling drive current to zero, whereupon the drive is driven by the spring to return to an open position, the micromotion indicating that the drive is movable; or (ii) in an ON position of the circuit breaker or recloser, (a) using a negative drive current to initiate an opening operation, (b) reversing the direction of the drive current after a predetermined interval, and (c), detecting by the means for detecting the micromotion whether a micromotion occurred in response to reversing the direction of the current, wherein, if no micromotion occurred, steps (a)-(c) are repeated with a later reverse of the drive current or with a stronger drive voltage or current until a micromotion is detected, or until a defined current-threshold, drive voltage threshold, or feeding-time threshold is reached indicating failure of the drive. (i) in an OFF position of the circuit breaker or recloser, energising a coil of the drive for a closing operation and, as soon as micromotion of the drive is detected by the means for the detection of the micromotion, controlling drive current to zero, whereupon the drive is driven by the spring to return to an open position, the micromotion indicating that the drive is movable; or (ii) in an ON position of the circuit breaker or recloser, (a) using a negative drive current to initiate an opening operation, (b) reversing the direction of the drive current after a predetermined interval, and (c), detecting by the means for detecting the micromotion whether a micromotion occurred in response to reversing the direction of the current, wherein, if no micromotion occurred, steps (a)-(c) are repeated with a later reverse of the drive current or with a stronger drive voltage or current until a micromotion is detected, or until a defined current-threshold, drive voltage threshold, or feeding-time threshold is reached indicating failure of the drive.
Use of particles of at least one crystalline oxide having an average particle size of less than 500 nm and a fluorine content of between 0.5 and 30% by weight, preferably between 0.5 and 5%, even more preferably between 1.0 and 4%, for the preparation of solid-state electrolytes.
A lighting device for a motor vehicle headlight, wherein the lighting device comprises at least one optical body and at least one mounting device for the at least one optical body, wherein the at least one optical body has a number of adjacently arranged ancillary optics (11, 12, 13, 14, 15), wherein each ancillary optics (11 - 15) is formed from a light-guiding material and each ancillary optics has a light-coupling face (11a-15a) and a light-decoupling face (11b-15b), wherein the at least one mounting device has at least one receptacle (111, 112, 113, 114, 115) for each ancillary optics, and wherein receptacles are delimited by delimiting walls (111', 112', 113', 114', 115'), wherein the delimiting walls (111', 112', 113', 114', 115') have boundary edges (111a', 112a', 113a', 114a', 115a') on the light exit side, wherein the delimiting walls (111', 112', 113', 114', 115') are formed from a light-impermeable material, and wherein a projection lens is arranged downstream of the at least one optical body in the light exit direction, and wherein the light exit-side boundary edges (111a', 112a', 113a', 114a', 115a') of the delimiting walls (111', 112', 113', 114', 115') lie in a common plane and a focal point of the projection lens lies in this common plane, such that the boundary edges (111a', 112a', 113a', 114a', 115a') are imaged, in a light distribution produced by means of the at least one optical body, as light-dark edges between the partial light distributions produced by the individual ancillary optics, and wherein characterised in that the ancillary optics are arranged and/or configured in such a way that the light-decoupling faces (11b-15b) of the ancillary optics protrude in the light exit direction beyond the boundary edges (111a', 112a', 113a', 114a', 115a') of the delimiting walls (111', 112', 113', 114', 115').
A multi-partite article (20, 35) comprising: a plurality of frame members; a plurality of support members, wherein the plurality of support members are detachably engageable to the plurality of frame members to form an article frame in which the plurality of frame members are disposed coaxially and are spaced apart from each other to define an internal volume; and a locking member (30, 36, 38, 70) detachably engageable to the plurality of support members, wherein the locking member (30, 36, 38, 70) comprises a plurality of locking member recesses (32, 34, 39, 40) arranged such that when the locking member (30, 36, 38, 70) engages with the plurality of support members, each locking memberrecess (32, 34, 39, 40) corresponds to each support member, and wherein the locking member (30, 36, 38, 70) is arranged such that when the locking member (30, 36, 38, 70) is rotated from an unlocked position in which each support member is located in a locking memberrecess (32, 34, 39, 40) to a locked position in which each support member is not located in a locking memberrecess (32, 34, 39, 40), the locking member (30, 36, 38, 70) urges the support members into an interference fit with the frame members. a plurality of frame members; a plurality of support members, wherein the plurality of support members are detachably engageable to the plurality of frame members to form an article frame in which the plurality of frame members are disposed coaxially and are spaced apart from each other to define an internal volume; and a locking member (30, 36, 38, 70) detachably engageable to the plurality of support members, wherein the locking member (30, 36, 38, 70) comprises a plurality of locking member recesses (32, 34, 39, 40) arranged such that when the locking member (30, 36, 38, 70) engages with the plurality of support members, each locking memberrecess (32, 34, 39, 40) corresponds to each support member, and wherein the locking member (30, 36, 38, 70) is arranged such that when the locking member (30, 36, 38, 70) is rotated from an unlocked position in which each support member is located in a locking memberrecess (32, 34, 39, 40) to a locked position in which each support member is not located in a locking memberrecess (32, 34, 39, 40), the locking member (30, 36, 38, 70) urges the support members into an interference fit with the frame members.
A method performed by a portable computing device, the method comprising: receiving an indication of an activity to be performed by a user; obtaining an indication of a current location of the user; transmitting, to a server, information relating to an area in which the location for the activity is to be identified, said information including the current location, and plural criteria relating to at least a time period for completing the activity and a level of privacy for the activity; receiving, from the server, location information identifying one or more candidate locations for the activity; and presenting information identifying at least one of said one or more candidate locations to the user; characterised in that the method further comprises: determining whether the activity has been completed; if the activity has not been completed, obtaining an updated current location for the user; determining whether the one or more candidate locations should be changed, based on said current location and the time period for completing the activity; and if it is determined that the one or more candidate locations should be changed, determining one or more new candidate locations and presenting updated location information identifying the one or more new candidate locations to the user. receiving an indication of an activity to be performed by a user; obtaining an indication of a current location of the user; transmitting, to a server, information relating to an area in which the location for the activity is to be identified, said information including the current location, and plural criteria relating to at least a time period for completing the activity and a level of privacy for the activity; receiving, from the server, location information identifying one or more candidate locations for the activity; and presenting information identifying at least one of said one or more candidate locations to the user; characterised in that the method further comprises: determining whether the activity has been completed; if the activity has not been completed, obtaining an updated current location for the user; determining whether the one or more candidate locations should be changed, based on said current location and the time period for completing the activity; and if it is determined that the one or more candidate locations should be changed, determining one or more new candidate locations and presenting updated location information identifying the one or more new candidate locations to the user. determining whether the activity has been completed; if the activity has not been completed, obtaining an updated current location for the user; determining whether the one or more candidate locations should be changed, based on said current location and the time period for completing the activity; and if it is determined that the one or more candidate locations should be changed, determining one or more new candidate locations and presenting updated location information identifying the one or more new candidate locations to the user.
Interior trim part of a vehicle, comprising a self-supporting carrier structure, the self-supporting carrier structure comprising - a network of a plurality of hollow support elements and solid support elements arranged according to the results of a load path analysis, - wherein the hollow support elements form at least one manifold used as an air duct comprising at least one air inlet for introducing air into the hollow support elements and at least one air outlet for guiding the air into a passenger compartment of a vehicle, and - at least one of the hollow support elements and/or one of the solid support elements form at least one functional entity by which a function can be integrated into the interior trim part characterized in that - at least some of the hollow support elements and/or at least some of the solid support elements are arranged such that they form o an intersection in which the hollow support elements penetrate each other or the solid support element penetrates the hollow support elements, or o a fusion section in which the hollow support elements merge with each other or the solid support element merges with the hollow support elements. - a network of a plurality of hollow support elements and solid support elements arranged according to the results of a load path analysis, - wherein the hollow support elements form at least one manifold used as an air duct comprising at least one air inlet for introducing air into the hollow support elements and at least one air outlet for guiding the air into a passenger compartment of a vehicle, and - at least one of the hollow support elements and/or one of the solid support elements form at least one functional entity by which a function can be integrated into the interior trim part - at least some of the hollow support elements and/or at least some of the solid support elements are arranged such that they form o an intersection in which the hollow support elements penetrate each other or the solid support element penetrates the hollow support elements, or o a fusion section in which the hollow support elements merge with each other or the solid support element merges with the hollow support elements. o an intersection in which the hollow support elements penetrate each other or the solid support element penetrates the hollow support elements, or o a fusion section in which the hollow support elements merge with each other or the solid support element merges with the hollow support elements.
A method for cleaning a spunbonding spinneret for the production of cellulosic spunbonded nonwoven from a solution of cellulose in an aqueous organic solvent by extruding the solution through nozzle holes of the spunbonding spinneret to form filaments and stretching the filaments in the direction of extrusion by means of a gas stream, during which method contaminations containing cellulose will accumulate on the surface of the spunbonding spinneret, comprising the steps of: a) spraying the contamination with an aqueous fluid precipitating the cellulose b) detaching and carrying away the contamination by means of the gas stream. a) spraying the contamination with an aqueous fluid precipitating the cellulose b) detaching and carrying away the contamination by means of the gas stream.
A machine for filling artificial insemination straws (p) with semen, which comprises a hopper for storing empty straws, a straw-filling station, and a transport device provided with elements for receiving and holding the straws (p), and configured for conveying straws taken in the hopper to present them to the filling station, characterised in that it is adapted for processing at least two categories of straws (p1, p2) having different diameters, said elements for receiving and holding the straws being subdivided into at least two distinct series which can be employed selectively, the elements of one of the two series conforming to adapt to large-diameter straws, whereas the elements of the other series conforming to adapt to small-diameter straws, characterized in that said transporter is endless, and each series of elements (90; 91) of a given category is composed of several groups formed from a certain number of adjacent elements (90; 91), the groups of a given category alternating with those of the other, the filling station being designed to simultaneously fill the batch of straws supported by a group of adjacent elements, and in that it comprises an electric motor controlled by a computer and operating step by step, configured to drive the transporter with successive and repeated phases of advance, at a low pitch equal to the value of the center distance between two adjacent elements (90, 91), then at a high pitch, of an amplitude multiple that of the low pitch, then a stop phase.
Method for producing an electrical sheet from a printing paste with the following steps: a) applying a printing paste to a substrate by a stencil or screen-printing method, b) drying the printing paste on the substrate, c) transferring the dried printing paste from the substrate to a sintering underlay, wherein before step c) the surface of the dried printing paste which is intended for contact with the sintering underlay is acted upon by a separating layer to facilitate separation of the thermally treated printing paste from the sintering underlay, d) thermally treating the printing paste on the sintering underlay, and e) separating the thermally treated printing paste from the sintering underlay. a) applying a printing paste to a substrate by a stencil or screen-printing method, b) drying the printing paste on the substrate, c) transferring the dried printing paste from the substrate to a sintering underlay, wherein before step c) the surface of the dried printing paste which is intended for contact with the sintering underlay is acted upon by a separating layer to facilitate separation of the thermally treated printing paste from the sintering underlay, d) thermally treating the printing paste on the sintering underlay, and e) separating the thermally treated printing paste from the sintering underlay.