mhurhangee/ep-ind-claims huggingface dataset:
Dual clutch transmission for a motor vehicle having switchable gear sets which form precisely eight wheel planes (RE-1 to RE-8) disposed one after the other in axial direction from the input side to the output side of the dual clutch transmission in the sequence first to eighth, which are assigned to a first and a second sub-transmission (A, B), wherein the first sub-transmission has a first input shaft and the second sub-transmission has a second input shaft, and the two sub-transmissions (A, B) have a shared output shaft, wherein the input shafts (22, 23) can be alternatingly activated via in each case one load-shiftable coupling (K1, K2), and wherein additionally the odd forward gears (1, 3, 5, ff) are assigned to the second sub-transmission and the even forward gears (2, 4, 6, ff) are assigned to the first sub-transmission, which are switchable via appropriate switching elements, wherein the gear sets of the first to the fourth wheel planes (RE-1 to RE-4) form the first sub-transmission and the gear sets of the fifth to the eighth wheel planes (RE-5 to RE-8) form the second sub-transmission, characterised in that the dual clutch transmission is a 12 gear transmission in which through multiple use of the gear sets of the wheel planes (RE-1 to RE-8) only eight wheel planes are used, wherein the gear set of the fifth wheel plane (RE-5) of the second sub-transmission can be coupled via a switching element (SE-D) with the first sub-transmission, wherein an output-side gear of the gear set, switchable onto both sub-transmissions (A, B), of the fifth wheel plane (RE-5) is disposed on the shared output shaft and the drive-side gear of the gear set (RE-5) switchable onto both sub-transmissions (A, B) can be coupled via switching elements (SE-D, SE-B) with the first sub-transmission or with the second sub-transmission, and wherein one (SE-D) of the switching elements (SE-D, SE-B) is a switching element switchable on both sides in the axial direction, by means of which the gear set of the fourth wheel plane (RE-4) of the first sub-transmission or the gear set, switchable onto both sub-transmissions (A, B), of the fifth wheel plane (RE-5) of the second sub-transmission is switchable, and wherein the jointly used gear set of the fifth wheel plane (RE-5) of the second sub-transmission is disposed directly adjacent to the first sub-transmission.
A method for opening an electrochemical generator comprising a negative electrode containing lithium or sodium and a positive electrode possibly containing lithium or sodium, the method comprising the following successive steps: a) immersing the electrochemical generator, in an ionic liquid solution comprising a solvent ionic liquid and, possibly, a so-called oxidant redox species able to be reduced on the negative electrode so as to discharge the electrochemical generator, b) opening the electrochemical generator with an electrically-insulating element, opening being carried out in the ionic liquid solution. a) immersing the electrochemical generator, in an ionic liquid solution comprising a solvent ionic liquid and, possibly, a so-called oxidant redox species able to be reduced on the negative electrode so as to discharge the electrochemical generator, b) opening the electrochemical generator with an electrically-insulating element, opening being carried out in the ionic liquid solution.
A powder container for handling powder in an additive manufacturing process, wherein the powder container comprises at least: - a powder vessel enclosing a vessel volume for storing said powder, - a vessel support structure supporting the powder vessel, - a set N of n sensors for determining a set of n observables, wherein n is an integer greater or equal two, i.e., n ∈ {2, 3, 4,..., n max}, - a set L of l actuators (428, 438, 488, 498, 858) for driving at least one mechanical device of the powder container, wherein l is a positive integer number, characterized in that the powder container further comprises at least transportation means being attached to the vessel support structure, a multi-port connector configured to be connected with a corresponding connector of a powder handling station in an additive manufacturing process, wherein the multi-port connector is a plug-connector or a socket connector having a number of ports, and in that each sensor of a subset M of m sensors of the set N of n sensors, where m is an integer number with 2 ≤ m ≤ n, is connected via a separate measurement line to a separate port of the multi-port connector and/or in that each actuator (428, 438, 488, 498, 858) of at least a subset K of k actuators of the set L of l actuators, where k is an integer number with 2 ≤ k ≤ l, is connected via a separate actuator control line to a separate contact and/or port of the multi-port connector. - a powder vessel enclosing a vessel volume for storing said powder, - a vessel support structure supporting the powder vessel, - a set N of n sensors for determining a set of n observables, wherein n is an integer greater or equal two, i.e., n ∈ {2, 3, 4,..., n max}, - a set L of l actuators (428, 438, 488, 498, 858) for driving at least one mechanical device of the powder container, wherein l is a positive integer number, characterized in that the powder container further comprises at least transportation means being attached to the vessel support structure, a multi-port connector configured to be connected with a corresponding connector of a powder handling station in an additive manufacturing process, wherein the multi-port connector is a plug-connector or a socket connector having a number of ports, and in that each sensor of a subset M of m sensors of the set N of n sensors, where m is an integer number with 2 ≤ m ≤ n, is connected via a separate measurement line to a separate port of the multi-port connector and/or in that each actuator (428, 438, 488, 498, 858) of at least a subset K of k actuators of the set L of l actuators, where k is an integer number with 2 ≤ k ≤ l, is connected via a separate actuator control line to a separate contact and/or port of the multi-port connector.
A safety switch with detection of the drive of an auxiliary unlocking control adapted to supervise a safety access of a machine or industrial plant, comprising: - a switching device adapted to be associated to a fixed part of an access to be supervised and having a casing defining a longitudinal axis and housing switching means adapted to be operatively connected to one or more control and/or service circuits for the control thereof; - an operating device associated to a movable part of the access to interact with said switching means at the time of opening/closing of the access for opening/closing one or more of said circuits; - an unlocking mechanism housed in said casing and having an unlocking pin adapted to translate longitudinally with a maximum predetermined stroke from a locking position of the access to an unlocking position to operate the opening of said switching means; - means for detection of the stroke of said unlocking pin having at least one first detector adapted to detect the start of the stroke of said unlocking pin; - at least one auxiliary unlocking control ( 25, 26) operatively connected to said unlocking mechanism and susceptible to move from a rest position to an operative position of unlocking of the access and promote the translation of said unlocking pin even with said operating device inserted; characterized in that said detection means comprise at least one auxiliary detector adapted to detect the actuation of said at least one auxiliary unlocking control ( 25, 26). - a switching device adapted to be associated to a fixed part of an access to be supervised and having a casing defining a longitudinal axis and housing switching means adapted to be operatively connected to one or more control and/or service circuits for the control thereof; - an operating device associated to a movable part of the access to interact with said switching means at the time of opening/closing of the access for opening/closing one or more of said circuits; - an unlocking mechanism housed in said casing and having an unlocking pin adapted to translate longitudinally with a maximum predetermined stroke from a locking position of the access to an unlocking position to operate the opening of said switching means; - means for detection of the stroke of said unlocking pin having at least one first detector adapted to detect the start of the stroke of said unlocking pin; - at least one auxiliary unlocking control ( 25, 26) operatively connected to said unlocking mechanism and susceptible to move from a rest position to an operative position of unlocking of the access and promote the translation of said unlocking pin even with said operating device inserted;
A ferrite-austenite stainless steel sheet having excellent ridging resistance and workability, the steel sheet comprising: in terms of mass%, C: 0.1% or less; Cr: 17 to 25%; Si: 0.01 to 1%; Mn: 3.7% or less; Ni: 0.6 to 3%; Cu: 0.1 to 3%; N: 0.06% or more and less than 0.15%, and optionally one or more selected from the group consisting of Al: 0.2% or less, Mo: 1% or less, Ti: 0.5% or less, Nb: 0.5% or less, B: 0.01% or less, Ca: 0.01% or less, Mg: 0.01% or less, and rare-earth elements: 0.5% or less, with the remainder being Fe and inevitable impurities, wherein the steel sheet has a two-phase structure consisting of a ferrite phase and an austenite phase, a volume fraction of the austenite phase is in a range of 15 to 70%, in a sheet plane of a center of a sheet thickness, grains of the ferrite phase having a crystal orientation satisfying ND// ±10° and grains of the ferrite phase having a crystal orientation satisfying ND// ±10° are present in a total content of 10% by area or more, and a ridging height is 5 μm or less, and the ridging height is obtained by a method which includes: sampling JIS No. 5 tensile test specimen in parallel to a rolling direction of the steel sheet; applying 16% of a tensile strain to the test specimen; and measuring a surface roughness by using a roughness meter. C: 0.1% or less; Cr: 17 to 25%; Si: 0.01 to 1%; Mn: 3.7% or less; Ni: 0.6 to 3%; Cu: 0.1 to 3%; N: 0.06% or more and less than 0.15%, and optionally one or more selected from the group consisting of Al: 0.2% or less, Mo: 1% or less, Ti: 0.5% or less, Nb: 0.5% or less, B: 0.01% or less, Ca: 0.01% or less, Mg: 0.01% or less, and rare-earth elements: 0.5% or less, with the remainder being Fe and inevitable impurities, wherein the steel sheet has a two-phase structure consisting of a ferrite phase and an austenite phase, a volume fraction of the austenite phase is in a range of 15 to 70%, in a sheet plane of a center of a sheet thickness, grains of the ferrite phase having a crystal orientation satisfying ND// ±10° and grains of the ferrite phase having a crystal orientation satisfying ND// ±10° are present in a total content of 10% by area or more, and a ridging height is 5 μm or less, and the ridging height is obtained by a method which includes: sampling JIS No. 5 tensile test specimen in parallel to a rolling direction of the steel sheet; applying 16% of a tensile strain to the test specimen; and measuring a surface roughness by using a roughness meter.
Aerosol-generating rod segment comprising a rod-shaped susceptor casing and an aerosol-forming gel contained in the rod-shaped susceptor casing, wherein the susceptor casing comprises a bottom, a side wall and an opening arranged opposite the bottom, and wherein the aerosol-forming gel is retained inside the susceptor casing in axial direction of the aerosol-generating rod segment by at least one positive locking means, wherein at least one of said at least one positive locking means is designed as an inwardly directed seam of the susceptor casing arranged adjacent to an end section of the susceptor casing, which end section is arranged opposite the bottom of the susceptor casing, characterized in that the side wall of the susceptor casing is corrugated, and in that the seam is formed by an inwardly bent end portion (125,127) of the side wall of the susceptor casing.
A method for providing original equipment manufacturer, OEM, human-machine interface, HMI, device operation of a non-OEM handheld mobile device, the method comprising: processing an access request received via a vehicle network; transmitting, in response to the access request, a human-machine interface, HMI, configuration request that corresponds to the OEM HMI device; receiving, in response to the HMI configuration request, a HMI mapping assignment that corresponds with the OEM HMI device; and applying the HMI mapping assignment to OEM HMI device data to produce non-OEM HMI data, wherein the OEM HMI device data being operable to manipulate at least one application function of the non-OEM handheld mobile device wherein the non-OEM handheld mobile device provides functionality associated with the OEM HMI device, whereby one or more functions of the OEM HMI device are affected by inputs provided on the non-OEM handheld mobile device. processing an access request received via a vehicle network; transmitting, in response to the access request, a human-machine interface, HMI, configuration request that corresponds to the OEM HMI device; receiving, in response to the HMI configuration request, a HMI mapping assignment that corresponds with the OEM HMI device; and applying the HMI mapping assignment to OEM HMI device data to produce non-OEM HMI data, wherein the OEM HMI device data being operable to manipulate at least one application function of the non-OEM handheld mobile device wherein the non-OEM handheld mobile device provides functionality associated with the OEM HMI device, whereby one or more functions of the OEM HMI device are affected by inputs provided on the non-OEM handheld mobile device.
A method for designing a contact lens, comprising the steps of: a.) placing a contact lens comprising a first design on an individual's eye; b.) recording the contact lens position and the individual's eyelid movement over a period of time; c.) analyzing the recording; and d.) modifying the first design using the information obtained in step c.) to provide a second lens having a second design, characterised in that step c.) comprises evaluating the effect of the eyelid movement on the contact lens position over time, including quantifying the eyelid-lens interaction by: c1.) measuring the amount of lens rotation resulting from each blink; and c2.) plotting the lens rotation and eyelid movement measured in a time series chart to correlate lens rotation in degrees versus the number of blinks. c1.) measuring the amount of lens rotation resulting from each blink; and c2.) plotting the lens rotation and eyelid movement measured in a time series chart to correlate lens rotation in degrees versus the number of blinks.
A device for exterminating or driving away animal pests, which is characterized in that it a) comprises suitable sensors configured to acquire the position of the animal pest, b) comprises a smart control unit configured in such a way that the data acquired by the sensor is transferrable to the smart control unit, and c) comprises one or more nozzles configured to produce at least one individual minute droplet, said individual minute droplet being provided to hit the animal pest and thus achieve the desired effect of driving away or extermination. a) comprises suitable sensors configured to acquire the position of the animal pest, b) comprises a smart control unit configured in such a way that the data acquired by the sensor is transferrable to the smart control unit, and c) comprises one or more nozzles configured to produce at least one individual minute droplet, said individual minute droplet being provided to hit the animal pest and thus achieve the desired effect of driving away or extermination.
An LED chip, comprising: a semiconductor substrate; first and second external terminals (16,20); an LED structure connected between the first and second external terminals, the LED structure comprising a first semiconductor layer and a second semiconductor layer over the first semiconductor layer, each layer having a top surface and a bottom surface; a suspended beam electrostatic switch connected in series with the LED structure between the first and second external terminals, or in parallel with the LED structure; a third external terminal; and a control electrode connected to the third external terminal for controlling the suspended beam electrostatic switch, characterized in that, the first semiconductor layer comprises two sub-portions (2a, 2b) electrically isolated from one another by a dividing channel in the first semiconductor layer separating the two sub-portions (2a, 2b) and physically connected at their bottom surfaces by the semiconductor substrate, the second semiconductor layer partially covers the top surface of the first semiconductor layer, an internal terminal is connected to the anode or cathode of the LED structure and is disposed on the top surface of one sub-portion of the first semiconductor layer, and the second external terminal is disposed on the top surface of the other sub-portion of the first semiconductor layer, and the control electrode is disposed on a surface within the dividing channel. a semiconductor substrate; first and second external terminals (16,20); an LED structure connected between the first and second external terminals, the LED structure comprising a first semiconductor layer and a second semiconductor layer over the first semiconductor layer, each layer having a top surface and a bottom surface; a suspended beam electrostatic switch connected in series with the LED structure between the first and second external terminals, or in parallel with the LED structure; a third external terminal; and a control electrode connected to the third external terminal for controlling the suspended beam electrostatic switch, characterized in that, the first semiconductor layer comprises two sub-portions (2a, 2b) electrically isolated from one another by a dividing channel in the first semiconductor layer separating the two sub-portions (2a, 2b) and physically connected at their bottom surfaces by the semiconductor substrate, the second semiconductor layer partially covers the top surface of the first semiconductor layer, an internal terminal is connected to the anode or cathode of the LED structure and is disposed on the top surface of one sub-portion of the first semiconductor layer, and the second external terminal is disposed on the top surface of the other sub-portion of the first semiconductor layer, and the control electrode is disposed on a surface within the dividing channel.
A method comprising: distributing payload data among a master sub-band and a plurality of slave sub-bands, wherein the master sub-band and the plurality of slave sub-bands collectively extend over an allocated frequency spectrum, the master sub-band and the plurality of slave sub-bands being associated with different carrier frequencies, and the master sub-band having a center frequency corresponding to a center frequency of the allocated frequency spectrum; generating modulated data for the master sub-band and the plurality of slave sub-bands based on the distributed payload data; and transmitting an optical signal representing the modulated data to an optical medium, characterized in that the method further comprises generating control data of the payload data to control a feature associated with the master sub-band and the plurality of slave frequency bands, wherein distributing the payload data comprises designating the control data to appear in the master sub-band and wherein the control data comprises data to set a type of modulation associated with the master sub-band and the plurality of slave sub-bands. distributing payload data among a master sub-band and a plurality of slave sub-bands, wherein the master sub-band and the plurality of slave sub-bands collectively extend over an allocated frequency spectrum, the master sub-band and the plurality of slave sub-bands being associated with different carrier frequencies, and the master sub-band having a center frequency corresponding to a center frequency of the allocated frequency spectrum; generating modulated data for the master sub-band and the plurality of slave sub-bands based on the distributed payload data; and transmitting an optical signal representing the modulated data to an optical medium, characterized in that the method further comprises generating control data of the payload data to control a feature associated with the master sub-band and the plurality of slave frequency bands, wherein distributing the payload data comprises designating the control data to appear in the master sub-band and wherein the control data comprises data to set a type of modulation associated with the master sub-band and the plurality of slave sub-bands.
A method comprising: receiving a notification message containing a care-of address associated with a first node in a communications network, the first node connected to the communications network via a second node in the communications network; accessing, with the third node being a mediation device a database to identify the second node using the care-of address; directing, with the third node, the second node to establish a tap of communications associated with the first node at the second node when the third node identifies the second node in the database; and sending, with the third node, a request message to a fourth node, the request message comprising a request to the fourth node to direct the second node to establish the tap of communications when the third node does not identify the second node in the database; wherein the tap of communications comprises a copy by the second node of the communications associated with the first node. receiving a notification message containing a care-of address associated with a first node in a communications network, the first node connected to the communications network via a second node in the communications network; accessing, with the third node being a mediation device a database to identify the second node using the care-of address; directing, with the third node, the second node to establish a tap of communications associated with the first node at the second node when the third node identifies the second node in the database; and sending, with the third node, a request message to a fourth node, the request message comprising a request to the fourth node to direct the second node to establish the tap of communications when the third node does not identify the second node in the database; wherein the tap of communications comprises a copy by the second node of the communications associated with the first node.