mhurhangee/ep-ind-claims huggingface dataset:
Device for winding/unwinding a link, comprising: - an input shaft movable in rotation about a longitudinal axis, - an output shaft substantially coaxial to the input shaft, adapted for mounting a rotating joint integral in rotation with the output shaft, the output shaft being a hollow through shaft arranged for the passage of the link between a reel and the rotating joint, the output shaft being adapted to drive the reel in rotation about the longitudinal axis, - at least one permanent magnet synchronous motor comprising a rotor arranged around a first portion of the output shaft, the rotor being integral in rotation with the input shaft, - a cycloidal reducer arranged around a second portion of the output shaft, the cycloidal reducer comprising at least one internal cam, an external crown and at least one cycloidal disc arranged between each cam and the crown, wherein each cam is mounted integral in rotation with the input shaft, the at least one cycloidal disc is mounted integral in rotation with each cam, and wherein each cam is eccentric, in such a way that a rotation of each cam about the longitudinal axis drives a rotation of the at least one cycloidal disc in an eccentric and cycloidal movement, and - a transmission member suitable for transmitting an angular displacement of the at least one cycloidal disc to the output shaft, in such a way that an eccentric and cycloidal rotation of the at least one cycloidal disc drives a rotation about the longitudinal axis of the output shaft. - an input shaft movable in rotation about a longitudinal axis, - an output shaft substantially coaxial to the input shaft, adapted for mounting a rotating joint integral in rotation with the output shaft, the output shaft being a hollow through shaft arranged for the passage of the link between a reel and the rotating joint, the output shaft being adapted to drive the reel in rotation about the longitudinal axis, - at least one permanent magnet synchronous motor comprising a rotor arranged around a first portion of the output shaft, the rotor being integral in rotation with the input shaft, - a cycloidal reducer arranged around a second portion of the output shaft, the cycloidal reducer comprising at least one internal cam, an external crown and at least one cycloidal disc arranged between each cam and the crown, wherein each cam is mounted integral in rotation with the input shaft, the at least one cycloidal disc is mounted integral in rotation with each cam, and wherein each cam is eccentric, in such a way that a rotation of each cam about the longitudinal axis drives a rotation of the at least one cycloidal disc in an eccentric and cycloidal movement, and - a transmission member suitable for transmitting an angular displacement of the at least one cycloidal disc to the output shaft, in such a way that an eccentric and cycloidal rotation of the at least one cycloidal disc drives a rotation about the longitudinal axis of the output shaft.
A system comprising a substrate and an electroless composite coating in contact with the substrate, wherein the electroless composite coating comprising a layered structure alternating a metallic NiP layer comprising Ni and P and a composite NiP layer, said composite NiP layer comprising Ni, P and dispersed particles, wherein the dispersed particles are a blend comprising first and second particles and the first and the second particles are different in size and nature, and wherein the layered structure alternating at least a metallic NiP layer comprising Ni and P; at least a composite NiP layer comprising Ni, P and dispersed particles; and at least a further NiP layer or composite NiP layer.
Method for operating a cooling system which is suitable, in particular, for cooling food on board an aircraft, in which the following steps are carried out on starting the cooling system: - discharging a partial amount of a refrigerant, which, in the rest state of the cooling system, is stored in a receiving space of a refrigerant container in the gaseous state of aggregation, from the receiving space of the refrigerant container into a cooling circuit of the cooling system, - directing the partial amount of the refrigerant into a liquefier arranged in the cooling circuit and converting the partial amount of the refrigerant to the liquid state of aggregation, - directing the partial amount of the refrigerant liquefied by the liquefier through a heat exchanger arranged in the receiving space of the refrigerant container, characterised by the step of - converting the remaining refrigerant, stored in the receiving space of the refrigerant container in the gaseous state of aggregation, to the liquid state of aggregation by heat energy transfer to the partial amount of the refrigerant flowing through the heat exchanger. - discharging a partial amount of a refrigerant, which, in the rest state of the cooling system, is stored in a receiving space of a refrigerant container in the gaseous state of aggregation, from the receiving space of the refrigerant container into a cooling circuit of the cooling system, - directing the partial amount of the refrigerant into a liquefier arranged in the cooling circuit and converting the partial amount of the refrigerant to the liquid state of aggregation, - directing the partial amount of the refrigerant liquefied by the liquefier through a heat exchanger arranged in the receiving space of the refrigerant container, characterised by the step of - converting the remaining refrigerant, stored in the receiving space of the refrigerant container in the gaseous state of aggregation, to the liquid state of aggregation by heat energy transfer to the partial amount of the refrigerant flowing through the heat exchanger.
A cysteine-optimized multimerizing stradomer unit comprising from amino to carboxy terminus, an IgG1 Fc domain comprising an IgG1 hinge, IgG1 CH2 and IgG1 CH3 domain and an IgG2 hinge multimerization domain, wherein the stradomer unit comprises at least two stradomer unit monomers and wherein the at least two stradomer unit monomers each comprises the amino acid sequence of SEQ ID NO: 10 with at least one point mutation replacing with another amino acid a cysteine residue in the IgG Fc domain monomer or the IgG2 multimerization domain monomer of SEQ ID NO: 10 at any of positions 5, 11, 14, 152, 210, 237, 240 and 243 of SEQ ID NO: 10.
A multi-device OLED comprising - a device layer stack comprising a bottom electrode comprising an isolated region, a top electrode, at least one inter electrode and plurality of active layers (120, 121), wherein the bottom electrode is applied to a substrate, and each active layer (120, 121) is enclosed between two electrodes (11, 13, 14); - a current distribution means comprising a current distribution layer (51, 53, 54) for each electrode (11, 13, 14) of the device layer stack; - a plurality of openings (110, 130) extending from the top electrode into the device layer stack, wherein each opening (110, 130) exposes a contact region (111, 131) of an electrode (11, 13), wherein the contact region of the inter electrode comprises the isolated region of the bottom electrode, wherein between the isolated region of the bottom electrode and a neighboring part of the bottom electrode a first active layer of the plurality of active layers (120, 121) is arranged such that it is in contact with the isolated region and the neighboring part of the bottom electrode, wherein the first active layer is also arranged between the neighboring part of the bottom electrode and the inter electrode; and - a plurality of electrical connectors (41, 42), wherein an electrical connector (41, 42) extends into an opening (110, 130) to electrically connect the electrode (11, 13) exposed by that opening (110, 130) to the current distribution layer (53, 54) for that electrode (11, 13). - a device layer stack comprising a bottom electrode comprising an isolated region, a top electrode, at least one inter electrode and plurality of active layers (120, 121), wherein the bottom electrode is applied to a substrate, and each active layer (120, 121) is enclosed between two electrodes (11, 13, 14); - a current distribution means comprising a current distribution layer (51, 53, 54) for each electrode (11, 13, 14) of the device layer stack; - a plurality of openings (110, 130) extending from the top electrode into the device layer stack, wherein each opening (110, 130) exposes a contact region (111, 131) of an electrode (11, 13), wherein the contact region of the inter electrode comprises the isolated region of the bottom electrode, wherein between the isolated region of the bottom electrode and a neighboring part of the bottom electrode a first active layer of the plurality of active layers (120, 121) is arranged such that it is in contact with the isolated region and the neighboring part of the bottom electrode, wherein the first active layer is also arranged between the neighboring part of the bottom electrode and the inter electrode; and - a plurality of electrical connectors (41, 42), wherein an electrical connector (41, 42) extends into an opening (110, 130) to electrically connect the electrode (11, 13) exposed by that opening (110, 130) to the current distribution layer (53, 54) for that electrode (11, 13).
Method for transmitting data of a tyre module to a central data server, comprising at least the following steps: a) providing a vehicle tyre having a tyre module, wherein the tyre module is used to capture measurement data and/or individual tyre data, the tyre module being used to record at least the tyre pressure, b) evaluating the measurement data and/or tyre data using a computer unit integrated in the tyre module, wherein the tyre module is used to evaluate at least the tyre pressure, with a difference between the measured tyre pressure and a predefined setpoint value resulting in an error message being generated, c) transmitting the measurement data and/or tyre data using a transmitting and receiving unit integrated in the tyre module, wherein the measurement data and/or tyre data from the tyre module are transmitted to the central data server on the Internet directly by way of a low-energy wide area network, no central receiving unit being interposed in the vehicle during the data transmission, and the data being transmitted by way of a narrowband loT connection, d) receiving and evaluating the measurement data and/or tyre data using the central data server, and providing the data to a user, the error message generated in the event of a difference between the measured tyre pressure and a predefined setpoint value being displayed to the user. a) providing a vehicle tyre having a tyre module, wherein the tyre module is used to capture measurement data and/or individual tyre data, the tyre module being used to record at least the tyre pressure, b) evaluating the measurement data and/or tyre data using a computer unit integrated in the tyre module, wherein the tyre module is used to evaluate at least the tyre pressure, with a difference between the measured tyre pressure and a predefined setpoint value resulting in an error message being generated, c) transmitting the measurement data and/or tyre data using a transmitting and receiving unit integrated in the tyre module, wherein the measurement data and/or tyre data from the tyre module are transmitted to the central data server on the Internet directly by way of a low-energy wide area network, no central receiving unit being interposed in the vehicle during the data transmission, and the data being transmitted by way of a narrowband loT connection, wherein the measurement data and/or tyre data from the tyre module are transmitted to the central data server on the Internet directly by way of a low-energy wide area network, no central receiving unit being interposed in the vehicle during the data transmission, and the data being transmitted by way of a narrowband loT connection, d) receiving and evaluating the measurement data and/or tyre data using the central data server, and providing the data to a user, the error message generated in the event of a difference between the measured tyre pressure and a predefined setpoint value being displayed to the user.
A rolling facility comprising: a linear plate of a bearing assembly, said linear plate comprising: a plate attached to a housing of a mill stand and having a bearing surface which engages a movable bearing surface during operation; and a plurality of lubrication conduits, wherein each of the plurality of conduits is defined by a groove on a surface of the plate and by a surface of the housing of the mill stand, said plurality of conduits providing fluid communication between at least one outlet port to the bearing surface and at least one lubricant inlet port, whereby pressurized lubricant is expelled out of the at least one outlet port to provide lubrication between the bearing surface and the movable surface during a rolling campaign, wherein the plate is secured to the surface of the housing of the mill stand via a plurality of threaded fasteners passing through apertures of the plate. a linear plate of a bearing assembly, said linear plate comprising: a plate attached to a housing of a mill stand and having a bearing surface which engages a movable bearing surface during operation; and a plurality of lubrication conduits, wherein each of the plurality of conduits is defined by a groove on a surface of the plate and by a surface of the housing of the mill stand, said plurality of conduits providing fluid communication between at least one outlet port to the bearing surface and at least one lubricant inlet port, whereby pressurized lubricant is expelled out of the at least one outlet port to provide lubrication between the bearing surface and the movable surface during a rolling campaign, wherein the plate is secured to the surface of the housing of the mill stand via a plurality of threaded fasteners passing through apertures of the plate. a plate attached to a housing of a mill stand and having a bearing surface which engages a movable bearing surface during operation; and a plurality of lubrication conduits, wherein each of the plurality of conduits is defined by a groove on a surface of the plate and by a surface of the housing of the mill stand, said plurality of conduits providing fluid communication between at least one outlet port to the bearing surface and at least one lubricant inlet port, whereby pressurized lubricant is expelled out of the at least one outlet port to provide lubrication between the bearing surface and the movable surface during a rolling campaign, wherein the plate is secured to the surface of the housing of the mill stand via a plurality of threaded fasteners passing through apertures of the plate.
A valve assembly comprising: a valve body including a passageway through which a first gas can be transmitted through the valve assembly; a valve flow control element movable relative to the valve body between an opened position wherein flow through the passageway is at a maximum flow, and a closed position wherein flow through the passageway is at a minimum flow, the valve flow control element is shaped so that a control gap is provided between the valve body and valve flow control element through which the first gas can flow, and the dimensions of the control gap vary depending on the position of the valve flow control element relative to the valve body; and a gas injector arrangement for selectively injecting a second gas into the control gap when the valve assembly is used to control the flow of the first gas through the passageway; wherein the valve assembly has a valve conductance depending on the position of the valve flow control element relative to the valve body, and the gas injector arrangement injects the second gas into the control gap so as reduce the valve conductance of the valve when the valve flow control element is at or near the closed position and, wherein the gas injector arrangement includes secondary passageways (46,58,72) within the valve flow control element for directing the second gas to the control gap. a valve body including a passageway through which a first gas can be transmitted through the valve assembly; a valve flow control element movable relative to the valve body between an opened position wherein flow through the passageway is at a maximum flow, and a closed position wherein flow through the passageway is at a minimum flow, the valve flow control element is shaped so that a control gap is provided between the valve body and valve flow control element through which the first gas can flow, and the dimensions of the control gap vary depending on the position of the valve flow control element relative to the valve body; and a gas injector arrangement for selectively injecting a second gas into the control gap when the valve assembly is used to control the flow of the first gas through the passageway; wherein the valve assembly has a valve conductance depending on the position of the valve flow control element relative to the valve body, and the gas injector arrangement injects the second gas into the control gap so as reduce the valve conductance of the valve when the valve flow control element is at or near the closed position and, wherein the gas injector arrangement includes secondary passageways (46,58,72) within the valve flow control element for directing the second gas to the control gap.
Device in the form of a suction nozzle of an urban or industrial vacuum cleaner, preferably self-propelled, comprising a rigid hose or tube, said rigid hose or tube comprising gripping means (100, 200, 300) that comprise a first gripping element (110, 210, 310) in the form of a handle, a bearing element (120, 220, 320) serving as a lever and a second gripping element (130, 230, 330), and optionally a base (101, 201, 301), characterized in that - the first gripping element (110, 210, 310), both the distal and proximal ends of which are directly or indirectly connected to the rigid hose or tube of the nozzle and preferably by the base (101, 201, 301), has a length greater than 200 mm, - the first gripping element (110, 210, 310) in the form of a handle is positioned longitudinally and parallel or with an angle comprised between 5° and 45°, relative to the central axis or to one of the generatrices of the hose of the nozzle, - the second gripping element (130, 230, 330) is positioned at the end of the first gripping element (110, 210, 310) and toward the distal end of said nozzle, while the bearing element (120, 220, 320) serving as a lever is positioned toward the proximal end of said nozzle. - the first gripping element (110, 210, 310), both the distal and proximal ends of which are directly or indirectly connected to the rigid hose or tube of the nozzle and preferably by the base (101, 201, 301), has a length greater than 200 mm, - the first gripping element (110, 210, 310) in the form of a handle is positioned longitudinally and parallel or with an angle comprised between 5° and 45°, relative to the central axis or to one of the generatrices of the hose of the nozzle, - the second gripping element (130, 230, 330) is positioned at the end of the first gripping element (110, 210, 310) and toward the distal end of said nozzle, while the bearing element (120, 220, 320) serving as a lever is positioned toward the proximal end of said nozzle.
A method comprising: identifying common access control list, ACL, parameters and variable ACL parameters among a plurality of tenants in a network; generating a mapping table mapping parameter values for said variable ACL parameters to said tenants; generating a multi-tenant access control list for said plurality of tenants, the multi-tenant access control list comprising rules containing said common ACL parameters and rules containing variables for said variable ACL parameters, with values for the variables provided in the mapping table; storing the multi-tenant access control list and said mapping table at a network device; and applying the multi-tenant access control list to ports at the network device using the stored mapping, the applying step comprising: evaluating rules comprising variables by performing a lookup in the table to obtain values for the variables. identifying common access control list, ACL, parameters and variable ACL parameters among a plurality of tenants in a network; generating a mapping table mapping parameter values for said variable ACL parameters to said tenants; generating a multi-tenant access control list for said plurality of tenants, the multi-tenant access control list comprising rules containing said common ACL parameters and rules containing variables for said variable ACL parameters, with values for the variables provided in the mapping table; storing the multi-tenant access control list and said mapping table at a network device; and applying the multi-tenant access control list to ports at the network device using the stored mapping, the applying step comprising: evaluating rules comprising variables by performing a lookup in the table to obtain values for the variables. evaluating rules comprising variables by performing a lookup in the table to obtain values for the variables.
A film formation apparatus comprising: an evaporation chamber (509; 803) containing an evaporation source (104; 212) having a length of from 300 mm to 1200 mm in a longitudinal direction; a mechanism for moving the evaporation source (104; 212) in a direction perpendicular to the longitudinal direction of the evaporation source (104; 212; 805); wherein the evaporation source (104; 212; 805) is provided with a plurality of evaporation cells (103; 211) lined up in the longitudinal direction for irradiating from a line; characterized by an electromagnet formed above the mechanism and arranged to draw a metallic shadow mask (102; 208), located under a substrate (101; 203) to be coated and fixed to a mask holder, to the substrate (101; 203). an evaporation chamber (509; 803) containing an evaporation source (104; 212) having a length of from 300 mm to 1200 mm in a longitudinal direction; a mechanism for moving the evaporation source (104; 212) in a direction perpendicular to the longitudinal direction of the evaporation source (104; 212; 805); wherein the evaporation source (104; 212; 805) is provided with a plurality of evaporation cells (103; 211) lined up in the longitudinal direction for irradiating from a line;
A process for protecting a part comprising an aluminum-based alloy, the process comprising the following steps: - depositing a primer paint layer by anaphoresis over the entire part; - polymerizing the primer paint layer in order to form a non-conductive polymerized primer paint layer; - laser pickling, by means of a laser beam, of an area of the non-conductive polymerized primer paint layer in order to form an unpainted area; - trivalent chromium chemical conversion of the unpainted area in order to form a conductive protective layer; - drying the part; - depositing a finishing paint layer on at least a portion of the non-conductive polymerized primer paint layer; - polymerizing the finishing paint layer. - depositing a primer paint layer by anaphoresis over the entire part; - polymerizing the primer paint layer in order to form a non-conductive polymerized primer paint layer; - laser pickling, by means of a laser beam, of an area of the non-conductive polymerized primer paint layer in order to form an unpainted area; - trivalent chromium chemical conversion of the unpainted area in order to form a conductive protective layer; - drying the part; - depositing a finishing paint layer on at least a portion of the non-conductive polymerized primer paint layer; - polymerizing the finishing paint layer.