mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing of ceramic electro-insulating pipes having an external diameter between 30 mm and 100 mm, a wall thickness between 5 mm and 10 mm, a length between 15 cm and 150 cm, the method comprising moulding in a mould, an element made from a ceramic powder, compacting the ceramic element in a press, glazing, firing of a glazed element in a furnace and shaping the fired element in order to produce the ceramic insulating pipe characterised in that the element is moulded in a mould from a ceramic powder consisting of Al 2 O 3 from 40% to 75% by weight, SiO 2 from 5 to 25%, kaolin (white clay) from 5% to 20%, and potter's clay from 5% to 20%, wherein the mould comprises a rigid cylindrical lower punch and a flexible cylindrical outer membrane placed around the lower punch so that between them a cylindrical gap is formed to be filled with the ceramic powder, wherein while filling the gap with the ceramic powder, the outer membrane is deformed from a circular cross-section to an oval cross-section with the use of at least one pair of vibrators (211-212; 213-214) positioned on the opposite sides of the membrane and operating in at least three stages, in which the vibration frequency increases and the amplitude of vibration decreases between successive stages, wherein the lowest vibration frequency is between 50Hz and 70Hz, and the highest vibration frequency is between 90Hz and 110Hz, and wherein the vibration amplitude causes a reduction of the diameter of membrane between the vibrators from the lowest value of about 0.5% to the highest value of about 2%, wherein the filled mould is placed in the isostatic press in order to compact the element, wherein the membrane of the mould is pressed isostatically in a first cycle that lasts from 15 s to 25 s, in which the pressure is linearly increased from 1 bar up to a value between 300 bar and 800 bar, a second cycle which lasts about 1 s, in which the pressure is maintained at the level reached so far, and in a third cycle that lasts from 25 s to 35 s, wherein the pressure is reduced linearly to 1 bar, resulting in forming an element having a porosity of below 20%.
Cellulose acetate particles having an average particle size of 80 nm or more and 100 μm or less, a sphericity of 0.7 or more and 1.0 or less, and a surface smoothness of 80% or more and 100% or less, and the cellulose acetate having a total degree of acetyl substitution of 0.7 or more and 2.9 or less, wherein the average particle size, the sphericity and the surface smoothness are measured as described in the description.
Pane arrangement, comprising: a heatable composite pane having a capacitive switching region, comprising: a substrate and a cover pane and at least one first intermediate layer, which is arranged between the substrate and the cover pane, wherein a carrier film having an electrically conductive layer is arranged between the substrate and the first intermediate layer or between the cover pane and the first intermediate layer at least in sections, at least one region of the electrically conductive layer forms a capacitive switching region, the capacitive switching region has a contact region, a supply line region, and a connection region, the supply line region electrically connects the contact region to the connection region and the connection region can be electrically connected to a sensor electronics system, and at least one heating wire and at least two busbars are arranged between the substrate and the cover pane, and in each case one end of the heating wire is electrically conductingly connected to, in each case, one of the busbars, such that upon application of an electrical voltage to the busbars, a heating current can flow through the heating wire, whereby the heating wire can be heated, and a capacitive sensor electronics system, characterized in that the capacitive sensor electronics system is electrically conductingly connected to the connection region via a first input and to the heating wire or to the busbars via a second input. a substrate and a cover pane and at least one first intermediate layer, which is arranged between the substrate and the cover pane, wherein a carrier film having an electrically conductive layer is arranged between the substrate and the first intermediate layer or between the cover pane and the first intermediate layer at least in sections, at least one region of the electrically conductive layer forms a capacitive switching region, the capacitive switching region has a contact region, a supply line region, and a connection region, the supply line region electrically connects the contact region to the connection region and the connection region can be electrically connected to a sensor electronics system, and at least one heating wire and at least two busbars are arranged between the substrate and the cover pane, and in each case one end of the heating wire is electrically conductingly connected to, in each case, one of the busbars, such that upon application of an electrical voltage to the busbars, a heating current can flow through the heating wire, whereby the heating wire can be heated, and a capacitive sensor electronics system, characterized in that the capacitive sensor electronics system is electrically conductingly connected to the connection region via a first input and to the heating wire or to the busbars via a second input.
Methodology for the identification and the traceability of leather or leather-like materials throughout the manufacturing process of leather or leather-like products, the methodology being implemented by means of at least a marker-embedding device, a plurality of identification markers, a device for generating an electromagnetic stimulus (6, 9) and configured to convey the electromagnetic stimulus to the portion of the material that needs to be analyzed and a device for acquiring/recording the response to the electromagnetic stimulus (7, 9, 10), said methodology comprising the following steps: i. embedding permanently the markers in the leather or leather-like material to be traced, by means of said marker-embedding device; ii. stimulating the leather or leather-like material to be traced with a specific electromagnetic radiation produced by the generating device (6, 9); iii. acquiring the response of the marked leather or leather-like material to the electromagnetic stimulus by means of the external device (9, 10); iv. recording the response of the marked leather or leather-like material to the electromagnetic stimulus by means of an acquisition unit (7,10), said methodology being characterized in that: said marker-embedding device is a tattoo-gun; said identification markers consist of sub-micrometric particles, such as powders of ceramic or metallic particles always not visible to the human eye; said step (i.) for permanently embedding of the markers comprises embedding the markers at a depth of at least 0.2 mm under the surface of the leather or leather-like material; said specific electromagnetic radiation produced by the generating device (6, 9) is in the range from X-rays to microwaves in the electromagnetic spectrum. i. embedding permanently the markers in the leather or leather-like material to be traced, by means of said marker-embedding device; ii. stimulating the leather or leather-like material to be traced with a specific electromagnetic radiation produced by the generating device (6, 9); iii. acquiring the response of the marked leather or leather-like material to the electromagnetic stimulus by means of the external device (9, 10); iv. recording the response of the marked leather or leather-like material to the electromagnetic stimulus by means of an acquisition unit (7,10), said marker-embedding device is a tattoo-gun; said identification markers consist of sub-micrometric particles, such as powders of ceramic or metallic particles always not visible to the human eye; said step (i.) for permanently embedding of the markers comprises embedding the markers at a depth of at least 0.2 mm under the surface of the leather or leather-like material; said specific electromagnetic radiation produced by the generating device (6, 9) is in the range from X-rays to microwaves in the electromagnetic spectrum.
A communication method, comprising: a step of notifying, by a base station, a radio terminal of a discontinuous reception, DRX, cycle; a step of notifying, by a Mobility Management Entity, MME, the radio terminal of an extended DRX cycle longer than or equal to 5120 ms; characterized by a step of determining, by the radio terminal, whether or not the base station supports an extended DRX operation; a step of using, by the radio terminal, the extended DRX cycle to execute the extended DRX operation in an idle mode, in response to determining that the base station supports the extended DRX operation; a step of using, by the radio terminal, the DRX cycle of which the base station notifies the radio terminal, to execute a DRX operation in the idle mode without using the extended DRX cycle, in response to determining that the base station does not support the extended DRX operation; and a step of receiving, by the radio terminal, system information including system frame number from the base station when the radio terminal is using the extended DRX cycle longer than a predetermined period, wherein the communication method further comprises a step of establishing, by the radio terminal, an RRC connection with the base station and enter an RRC connected mode; a step of receiving, by the radio terminal, a connected mode DRX cycle length configured by the base station; and a step of transmitting, by the radio terminal, a message including information indicating a connected mode DRX cycle length desired by the radio terminal, to the base station. a step of notifying, by a base station, a radio terminal of a discontinuous reception, DRX, cycle; a step of notifying, by a Mobility Management Entity, MME, the radio terminal of an extended DRX cycle longer than or equal to 5120 ms; characterized by a step of determining, by the radio terminal, whether or not the base station supports an extended DRX operation; a step of using, by the radio terminal, the extended DRX cycle to execute the extended DRX operation in an idle mode, in response to determining that the base station supports the extended DRX operation; a step of using, by the radio terminal, the DRX cycle of which the base station notifies the radio terminal, to execute a DRX operation in the idle mode without using the extended DRX cycle, in response to determining that the base station does not support the extended DRX operation; and a step of receiving, by the radio terminal, system information including system frame number from the base station when the radio terminal is using the extended DRX cycle longer than a predetermined period, wherein the communication method further comprises a step of establishing, by the radio terminal, an RRC connection with the base station and enter an RRC connected mode; a step of receiving, by the radio terminal, a connected mode DRX cycle length configured by the base station; and a step of transmitting, by the radio terminal, a message including information indicating a connected mode DRX cycle length desired by the radio terminal, to the base station.
A wound treatment apparatus (101, 120, 200) for use with negative pressure, comprising: a wound filler for use in treating a wound with negative pressure, comprising: a flexible hollow tube; a vertical strut positioned within the flexible hollow tube, the vertical strut configured to extend vertically when the wound filler is positioned within a wound bed, the vertical strut being made of a more rigid material than the flexible hollow tube; and wherein upon application of negative pressure to the wound filler, the wound filler is configured to contract horizontally with the vertically strut reducing vertical movement of the wound filler. a flexible hollow tube; a vertical strut positioned within the flexible hollow tube, the vertical strut configured to extend vertically when the wound filler is positioned within a wound bed, the vertical strut being made of a more rigid material than the flexible hollow tube; and wherein upon application of negative pressure to the wound filler, the wound filler is configured to contract horizontally with the vertically strut reducing vertical movement of the wound filler.
A photovoltaic module comprising a plurality of photovoltaic cells (400, 400'), each of the cells comprising a cell body including a semiconductor body with a photosensitive region for photogeneration of charge carriers in response to absorption of electromagnetic radiation; wherein - the cell body includes an electrically conductive front side surface layer that is arranged on the semiconductor body and forms a front surface of the cell body and that is transparent for the impinging electromagnetic radiation used for the photogeneration of the charge carriers, and an electrically conductive back side surface layer that is arranged on the semiconductor body and forms a back surface of the cell body; - the cells (400, 400') are electrically connected with each other via a plurality of electrically conductive wires configured for providing a voltage to an external electrical load in operation of the module; - the individual wires have a convex outer surface in directions perpendicular to their respective longitudinal wire extension and include a metal core and an electrically conductive and adhesive wire coat that is directly attached and in immediate electrical contact to the front side surface layer or the backside surface layer of a given cell body by means of an electrically conductive adhesive bond. - the cell body includes an electrically conductive front side surface layer that is arranged on the semiconductor body and forms a front surface of the cell body and that is transparent for the impinging electromagnetic radiation used for the photogeneration of the charge carriers, and an electrically conductive back side surface layer that is arranged on the semiconductor body and forms a back surface of the cell body; - the cells (400, 400') are electrically connected with each other via a plurality of electrically conductive wires configured for providing a voltage to an external electrical load in operation of the module; - the individual wires have a convex outer surface in directions perpendicular to their respective longitudinal wire extension and include a metal core and an electrically conductive and adhesive wire coat that is directly attached and in immediate electrical contact to the front side surface layer or the backside surface layer of a given cell body by means of an electrically conductive adhesive bond.
A process for the manufacture of hydrogen peroxide comprising a stage during which a gas mixture comprising hydrogen and oxygen is activated in a cold plasma reactor, characterized in that at least a part of the reactor is cooled to a temperature of less than 15°C.
A method for assembling an apparatus for managing discharge of a battery assembly used to power at least part of an object, said method comprising: providing the battery assembly comprising one or more battery cells; electrically coupling a self-discharging circuit to the battery assembly; and electrically coupling a battery management system to the self-discharging circuit, wherein the battery management system is configured to control operation of the self-discharging circuit in order to permit controlled self-discharge of the battery assembly, and wherein the battery management system is configured to cause the battery assembly to discharge via the self-discharging circuit when a timer exceeds a threshold length of time; wherein the battery management system is configured to start the timer when the battery management system detects that power to the object is turned off; characterized in that the battery management system is configured to detect that the power to the object is turned off by receiving a signal from the object indicating that the power to the object is turned off. providing the battery assembly comprising one or more battery cells; electrically coupling a self-discharging circuit to the battery assembly; and electrically coupling a battery management system to the self-discharging circuit, wherein the battery management system is configured to control operation of the self-discharging circuit in order to permit controlled self-discharge of the battery assembly, and wherein the battery management system is configured to cause the battery assembly to discharge via the self-discharging circuit when a timer exceeds a threshold length of time; wherein the battery management system is configured to start the timer when the battery management system detects that power to the object is turned off; characterized in that the battery management system is configured to detect that the power to the object is turned off by receiving a signal from the object indicating that the power to the object is turned off.
A fusion protein for treating animal tumors, wherein the fusion protein comprises IL12, IL2 and GMCSF peptide fragments, wherein the IL12, IL2 and GMCSF peptide fragments are obtained from felines or canines, and wherein the fusion protein is set forth in SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, or SEQ ID NO: 6.
A method for providing audible information from a defibrillator, the method comprising: providing the audible information having default audible characteristics in response to a first ambient noise condition; and providing the audible information having different audible characteristics than the default audible characteristics in response to a second ambient noise condition, wherein providing the audible information having default audible characteristics comprises replaying a first prerecorded voice prompt providing instructions and having first audible characteristics and wherein providing the audible information having different audible characteristics comprises replaying a second prerecorded voice prompt providing the same instructions and having second audible characteristics different than the first audible characteristics. providing the audible information having default audible characteristics in response to a first ambient noise condition; and providing the audible information having different audible characteristics than the default audible characteristics in response to a second ambient noise condition, wherein providing the audible information having default audible characteristics comprises replaying a first prerecorded voice prompt providing instructions and having first audible characteristics and wherein providing the audible information having different audible characteristics comprises replaying a second prerecorded voice prompt providing the same instructions and having second audible characteristics different than the first audible characteristics.
Control device to control the exterior lighting provided by at least one photometric function of a vehicle comprising a powertrain and at least one lockable/unlockable access control mechanism, that device comprising at least one processor and at least one memory designed to perform the operations of triggering a first phase of light animation of a first duration chosen by at least one function photometric in the event that the said powerplant is stopped and a second phase of light animation of a second duration chosen by at least one photometric function in the event of the locking of the access control mechanism, and to perform operations consisting, in the event of the locking of the access control mechanism before the end of the first phase of light animation, of interrupting the first phase of light animation and triggering a third phase of light animation a third duration chosen by at least one photometric function after that second phase of light animation
A method for use in a Narrowband Internet of Things network comprising a base station, eNB,, said method being characterized in comprising during connection of a user equipment, UE, to the Network: the eNB determining if a UE connection profile specific to the UE is available for the UE, and if so fetching the UE connection profile and the eNB configuring the connection with the UE according to the UE connection profile; the eNB monitoring a traffic pattern during the connection; and the eNB updating the UE connection profile based on the monitored traffic pattern and storing the UE connection profile at regular or irregular intervals, continuously as a change is detected/needed, and/or it may be done as the UE is released. the eNB determining if a UE connection profile specific to the UE is available for the UE, and if so fetching the UE connection profile and the eNB configuring the connection with the UE according to the UE connection profile; the eNB monitoring a traffic pattern during the connection; and the eNB updating the UE connection profile based on the monitored traffic pattern and storing the UE connection profile at regular or irregular intervals, continuously as a change is detected/needed, and/or it may be done as the UE is released.