mhurhangee/ep-ind-claims huggingface dataset:
A toroidal-type stepless transmission comprising: at least a pair of an input disc and an output disc; a power roller tiltably provided between the pair of the input disc and the output disc, the power roller being configured to transmit a driving force from the input disc to the output disc; and disc shrouds (31, 33) covering the input disc and the output disc, respectively, wherein each of the input disc and the output disc has an inner surface (15a, 17a) having a concave shape against which the power roller is pressed, an outer surface that is flat and faces axially opposite direction of the inner surface, and an outer peripheral surface, each of the disc shrouds (31, 33) has an inner wall that covers the inner surface, an outer wall that covers the outer surface, and an outer peripheral wall that covers the outer peripheral surface, each of the disc shrouds (31, 33) has an introduction port, provided in the inner wall of the disc shroud (31, 33), to introduce an oil from the outside of the disc shroud (31, 33) into the disc shroud (31, 33), and each of the disc shrouds (31, 33) has an outer peripheral portion formed with an oil discharge groove (37, 39) configured to discharge an oil within each disc shroud (31, 33) to the outside, the oil discharge groove (37, 39) penetrating from an inner surface of the disc shroud (31, 33) to an outer surface of the disc shroud (31, 33) and extending in a circumferential direction of the disc shroud (31, 33). at least a pair of an input disc and an output disc; a power roller tiltably provided between the pair of the input disc and the output disc, the power roller being configured to transmit a driving force from the input disc to the output disc; and disc shrouds (31, 33) covering the input disc and the output disc, respectively, wherein each of the input disc and the output disc has an inner surface (15a, 17a) having a concave shape against which the power roller is pressed, an outer surface that is flat and faces axially opposite direction of the inner surface, and an outer peripheral surface, each of the disc shrouds (31, 33) has an inner wall that covers the inner surface, an outer wall that covers the outer surface, and an outer peripheral wall that covers the outer peripheral surface, each of the disc shrouds (31, 33) has an introduction port, provided in the inner wall of the disc shroud (31, 33), to introduce an oil from the outside of the disc shroud (31, 33) into the disc shroud (31, 33), and each of the disc shrouds (31, 33) has an outer peripheral portion formed with an oil discharge groove (37, 39) configured to discharge an oil within each disc shroud (31, 33) to the outside, the oil discharge groove (37, 39) penetrating from an inner surface of the disc shroud (31, 33) to an outer surface of the disc shroud (31, 33) and extending in a circumferential direction of the disc shroud (31, 33).
Vehicle headlamp (1, 101) comprising a light source (2, 102) and an auxiliary optics (3, 103), wherein the light source (2, 102) is configured to emit light through the auxiliary optics (3, 103) and the auxiliary optics (3, 103) is configured to focus or shape the light, and the light source (2, 102) is attached on a support (10, 110) provided in the vehicle headlamp (1, 101), the support being provided with a bore (12, 13) respectively for receiving at least one connecting means (20, 21, 120), at least one spacer element (30, 31, 130) is provided on the support (10, 110) on a respective bearing surface, the at least one spacer element (30, 31, 130) having a height (35, 36) normal to the bearing surface, a holding bracket (40, 140) on which at least one spacer element (30, 31, 130) is provided, the holding bracket (40, 140) being fixed to the auxiliary optics (3, 103) and having a respective opening (41, 42) provided for receiving the at least one connecting means (20, 21, 120), the at least one connecting means (20, 21, 120), extending along a respective axis (22, 23), is provided for connecting the retaining bracket (40, 140) to the support (10, 110) and for this purpose is inserted into the respective opening (41, 42) and into the respective bore (12, 13), characterized in that the retaining bracket (40, 140), when in a first position in which the at least one connecting means (20, 21, 120) is inserted into the opening (41, 42), but not fixed, can be moved within the opening (41, 42) in a plane normal to the axis (22, 23) relative to the at least one connecting means (20, 21, 120) in order to allow an alignment of the auxiliary optics (3, 103) fixed to the support bracket (40, 140) within the plane relative to the light source (2, 102) fixed to the support (10, 110), and the at least one spacer element (30, 31, 130) can be compressed by means of the at least one connecting means (20, 21, 120) through the retaining bracket (40, 140) and the support (10, 110), decreasing the height (35, 36) of the at least one spacer element (30, 31, 130) and attaining a fixed second position of the retaining bracket (40, 140).
A frame (10, 50) of a porous electrochemical cell electrode (20, 30), said electrode being intended to make contact with a membrane, said frame being characterized in that: - the frame (10, 50) comprises a proximal portion (14, 54) close to a membrane, and a distal portion (12, 52) distant from the membrane - the frame (10, 50) comprises a supply channel (65, 66) for supplying an electrochemical fluid and an inlet channel (60, 61) for a fluid supplying a lateral face of the electrode (20, 30), the inlet channel (60, 61) comprising an orifice (62, 63) in the distal portion (12, 52) opening onto a lateral face of the electrode (20, 30), - the frame (10, 50) comprises a discharge channel (85, 86) for discharging an electrochemical fluid and an outlet channel (80, 81) through which the fluid exits via a lateral face of the electrode (20, 30), the outlet channel (80, 81) comprising an orifice (82, 83) in the distal portion (12, 52) opening onto a lateral face of the electrode (20, 30), - at least one, and preferably both, of the inlet channel (60, 61) and outlet channel (80, 81) comprises an inlet orifice (64, 67) or outlet orifice (84, 87), respectively, opening onto a supply channel (65, 66) or discharge channel (85, 86), respectively, in the proximal portion (14, 54) of the frame. - the frame (10, 50) comprises a proximal portion (14, 54) close to a membrane, and a distal portion (12, 52) distant from the membrane - the frame (10, 50) comprises a supply channel (65, 66) for supplying an electrochemical fluid and an inlet channel (60, 61) for a fluid supplying a lateral face of the electrode (20, 30), the inlet channel (60, 61) comprising an orifice (62, 63) in the distal portion (12, 52) opening onto a lateral face of the electrode (20, 30), - the frame (10, 50) comprises a discharge channel (85, 86) for discharging an electrochemical fluid and an outlet channel (80, 81) through which the fluid exits via a lateral face of the electrode (20, 30), the outlet channel (80, 81) comprising an orifice (82, 83) in the distal portion (12, 52) opening onto a lateral face of the electrode (20, 30), - at least one, and preferably both, of the inlet channel (60, 61) and outlet channel (80, 81) comprises an inlet orifice (64, 67) or outlet orifice (84, 87), respectively, opening onto a supply channel (65, 66) or discharge channel (85, 86), respectively, in the proximal portion (14, 54) of the frame.
A method for analysing faults in a transmission line network comprising at least one line segment and having a plurality of ends, said method comprising the steps of: - acquiring, at at least two ends of the line network, a measurement of a signal being propagated in the line network, - applying a time reversal to each signal measurement, - for each segment of the line network, constructing a cost function dependent on the time and the distance from a point of the segment to an end of the line network, by adding together the measurements of signals which are time-reversed and delayed by the propagation time of the signal between a point of the segment and the end of the line network associated with the measurement, - searching for at least one extremum of the cost function over all of the segments of the line network and retaining the coordinates of the extremum, - deducing therefrom the presence of a fault at a position and an instant of occurrence that are given by the coordinates of the extremum. - acquiring, at at least two ends of the line network, a measurement of a signal being propagated in the line network, - applying a time reversal to each signal measurement, - for each segment of the line network, constructing a cost function dependent on the time and the distance from a point of the segment to an end of the line network, by adding together the measurements of signals which are time-reversed and delayed by the propagation time of the signal between a point of the segment and the end of the line network associated with the measurement, - searching for at least one extremum of the cost function over all of the segments of the line network and retaining the coordinates of the extremum, - deducing therefrom the presence of a fault at a position and an instant of occurrence that are given by the coordinates of the extremum.
A method performed by an electronic device, the electronic device being a base station, the method comprising: generating a state model of the electronic device on the basis of learning data for a state of the electronic device; deriving state related information from the generated state model, wherein the derived state related information includes at least one parameter selected for determining the state of the electronic device; and transmitting the derived state related information to at least one other electronic device, wherein the state model of the electronic device includes information regarding at least one of power consumption of the base station, resource usage of the base station, abnormal operation of the base station, and performance of a terminal. generating a state model of the electronic device on the basis of learning data for a state of the electronic device; deriving state related information from the generated state model, wherein the derived state related information includes at least one parameter selected for determining the state of the electronic device; and transmitting the derived state related information to at least one other electronic device, wherein the state model of the electronic device includes information regarding at least one of power consumption of the base station, resource usage of the base station, abnormal operation of the base station, and performance of a terminal.
A method for controlling a vehicle, comprising: obtaining vehicle information of a target vehicle and environmental information of a reference environment in which the target vehicle is located; obtaining a target matrix based on the vehicle information and the environmental information, wherein an element in the target matrix is a probability value that the target vehicle transfers to a next state after performing an action in a current state; splitting the target matrix to obtain a plurality of sub-matrices; and obtaining target travel control information of the target vehicle based on matrix elements in the sub-matrices and travel control information of a surrounding vehicle of the target vehicle, wherein the target travel control information is used for controlling the target vehicle. obtaining vehicle information of a target vehicle and environmental information of a reference environment in which the target vehicle is located; obtaining a target matrix based on the vehicle information and the environmental information, wherein an element in the target matrix is a probability value that the target vehicle transfers to a next state after performing an action in a current state; splitting the target matrix to obtain a plurality of sub-matrices; and obtaining target travel control information of the target vehicle based on matrix elements in the sub-matrices and travel control information of a surrounding vehicle of the target vehicle, wherein the target travel control information is used for controlling the target vehicle.
A tin-plated copper-based terminal material wherein a Ni layer or a Ni alloy layer is formed on a surface of a base material made of copper or a copper alloy, a Cu-Sn alloy layer is formed on the Ni layer or Ni alloy layer; and a Sn-based surface layer is formed on the Cu-Sn alloy layer, wherein the Cu-Sn alloy layer consists of an intermetallic compound alloy which is obtained by substituting some of Cu in Cu 6 Sn 5 alloy with Ni, parts of the Cu-Sn alloy layer are exposed from the Sn-based surface layer and form exposed portions, an average thickness of the Sn-based surface layer is 0.2 μm or larger and 0.6 μm or smaller, an area rate of the exposed portions of the Cu-Sn alloy layer relative to a surface area of a surface layer of the tin-plated copper alloy terminal material is 1% or higher and 40% or lower, an average circle-equivalent diameter of the exposed portions of the Cu-Sn alloy layer is 0.1 μm or larger and 1.5 μm or smaller, a reduced peak height Rpk at a surface of the tin-plated copper alloy terminal material is 0.005 μm or larger and 0.03 μm or smaller, and coefficient of kinetic friction is 0.3 or less. the Cu-Sn alloy layer consists of an intermetallic compound alloy which is obtained by substituting some of Cu in Cu 6 Sn 5 alloy with Ni, parts of the Cu-Sn alloy layer are exposed from the Sn-based surface layer and form exposed portions, an average thickness of the Sn-based surface layer is 0.2 μm or larger and 0.6 μm or smaller, an area rate of the exposed portions of the Cu-Sn alloy layer relative to a surface area of a surface layer of the tin-plated copper alloy terminal material is 1% or higher and 40% or lower, an average circle-equivalent diameter of the exposed portions of the Cu-Sn alloy layer is 0.1 μm or larger and 1.5 μm or smaller, a reduced peak height Rpk at a surface of the tin-plated copper alloy terminal material is 0.005 μm or larger and 0.03 μm or smaller, and coefficient of kinetic friction is 0.3 or less.
A lift installation with a cage arrangement, which comprises a first lift cage and at least a second lift cage, a counterweight, a drive machine unit with a drive sheave and a traction means, wherein the traction means is guided over the drive sheave of the drive machine unit, wherein the traction means is connected on one side of the drive sheave to the cage arrangement and on the other side of the drive sheave to the counterweight, wherein the cage arrangement is traversable in a travel space of a lift shaft provided for the joint travel of the lift cages (9, 10) of the cage arrangement and wherein an adjustment mechanism is provided, by means of which the second lift cage can be adjusted relative to the first lift cage within the cage arrangement, wherein the adjustment mechanism comprises an adjustment device, a first adjustment traction means and the second adjustment traction means, that the first adjustment traction means and the second adjustment traction means are guided over the adjustment device and that the first adjustment traction means and the second adjustment traction means are connected on one side of the adjustment device to the second lift cage and on the other side of the adjustment device to the counterweight, characterised in that the adjustment device is suspended via the first adjustment traction means and the second adjustment traction means in the lift shaft.
A method for safeguarding the confidentiality of the identification of senders of messages comprising a user identifier, UID, transmitted through promiscuous channels, characterized in that it comprises the generation of keys in a recipient through the following steps: - creating a structure in the format of a binary tree, which depth is equal to the length in bits of the longest User Identifier UID that should be supported and which is still unknown in advance to the recipient, each supported UID corresponding to a leaf of the binary tree; - attributing a cryptographic key to each node of the binary tree, referring to a cryptographic algorithm used to encrypt a UID; and - attributing a different cryptographic key for the cryptography of the body of a message to each leaf of the tree. - creating a structure in the format of a binary tree, which depth is equal to the length in bits of the longest User Identifier UID that should be supported and which is still unknown in advance to the recipient, each supported UID corresponding to a leaf of the binary tree; - attributing a cryptographic key to each node of the binary tree, referring to a cryptographic algorithm used to encrypt a UID; and - attributing a different cryptographic key for the cryptography of the body of a message to each leaf of the tree.
Breast pump for collecting breast milk, comprising a funnel intended to receive the breast, a housing, and a device for producing a pumping effect, and wherein the funnel consists of a flexible material and extends into the housing, and in that for producing a pumping effect, the device comprises at least one body and characterized in that the body is movable over a portion of the length of the funnel while compressing the funnel such that the funnel together with the movable body functions as a peristaltic pump.
A method of operating a processing apparatus to determine a spectral measure of reflectance of an overprint of a plurality of inks made on a substrate using a printing process, the method comprising: (a) accepting in the processing apparatus a spectral measure of reflectance of a substrate at a plurality of wavelengths; (b) accepting in the processing apparatus a pre-defined order of printing an overprint of a plurality of inks on the substrate; (c) for each ink of the plurality of inks, for a respective amount of printing of the ink, accepting or determining in the processing apparatus a respective interaction of absorption and reflection function ("IAR function") indicative of how the ink interacts with a layer of one or more other inks when printed over the layer of the one or more other inks; and (d) determining in the processing apparatus the spectral measure of reflectance of the overprint of the plurality of inks printed on the substrate in the pre-defined order in the respective amounts of the inks, including repeatedly multiplying, in the pre-defined order, for each additional ink added to a partial overprint of the inks before the additional ink is added, the spectral measure of the partial overprint by the exponentiation of: (i) the ratio of the spectral measure of the additional ink on the substrate to the spectral measure of the substrate by (ii) the IAR function of the additional ink, starting with spectral measure of the substrate. (a) accepting in the processing apparatus a spectral measure of reflectance of a substrate at a plurality of wavelengths; (b) accepting in the processing apparatus a pre-defined order of printing an overprint of a plurality of inks on the substrate; (c) for each ink of the plurality of inks, for a respective amount of printing of the ink, accepting or determining in the processing apparatus a respective interaction of absorption and reflection function ("IAR function") indicative of how the ink interacts with a layer of one or more other inks when printed over the layer of the one or more other inks; and (d) determining in the processing apparatus the spectral measure of reflectance of the overprint of the plurality of inks printed on the substrate in the pre-defined order in the respective amounts of the inks, including repeatedly multiplying, in the pre-defined order, for each additional ink added to a partial overprint of the inks before the additional ink is added, the spectral measure of the partial overprint by the exponentiation of: (i) the ratio of the spectral measure of the additional ink on the substrate to the spectral measure of the substrate by (ii) the IAR function of the additional ink, starting with spectral measure of the substrate. (i) the ratio of the spectral measure of the additional ink on the substrate to the spectral measure of the substrate by (ii) the IAR function of the additional ink, starting with spectral measure of the substrate.
A planarization layer for a fluid ejection head, wherein the planarization layer has a thickness ranging from about 2 to about 3 microns, and comprises from about 8.0 to about 8.5 wt.% photoacid generator based on a total weight of the planarization layer devoid of solvent; from about 2 to about 3.6 wt.% photoinitiator based on a total weight of the planarization layer devoid of solvent; from about 0.35 to about 0.5 wt.% green dye based on a total weight of the planarization layer devoid of solvent; from about 35 to about 46 wt.% multifunctional epoxy compound based on a total weight of the planarization layer devoid of solvent; from about 35 to about 50 wt.% of one or more difunctional epoxy compounds based on a total weight of the planarization layer devoid of solvent; and from about 1 to about 2.6 wt.% silane adhesion promoter based on a total weight of the planarization layer devoid of solvent.
A light-emitting element (4, 4A, 4B, 4C), comprising: a phosphor layer (45, 45a) including phosphor of at least one type; a substrate which has a thermal conductivity higher than a thermal conductivity of the phosphor layer (45, 45a), the substrate having a principal surface above which the phosphor layer (45, 45a) is disposed; and a joining part (42, 42b) which is interposed between the phosphor layer (45, 45a) and the substrate to join the phosphor layer (45, 45a) and the substrate together with metal, wherein an adhesion layer and a reflecting layer are interposed between the joining part and the phosphor layer (45, 45a), the adhesion layer being light-transmissive and on a principal surface (452, 452e) of the phosphor layer (45, 45a) which faces the substrate, the reflecting layer being on a principal surface of the adhesion layer which faces the substrate, and the joining part (42, 42b) includes: a first electrode layer which is on the principal surface of the substrate; a second electrode layer which is on a principal surface of the reflecting layer which faces the substrate; and a metal joining layer which is interposed between the first electrode layer and the second electrode layer to join the first electrode layer and the second electrode layer together. a phosphor layer (45, 45a) including phosphor of at least one type; a substrate which has a thermal conductivity higher than a thermal conductivity of the phosphor layer (45, 45a), the substrate having a principal surface above which the phosphor layer (45, 45a) is disposed; and a joining part (42, 42b) which is interposed between the phosphor layer (45, 45a) and the substrate to join the phosphor layer (45, 45a) and the substrate together with metal, wherein an adhesion layer and a reflecting layer are interposed between the joining part and the phosphor layer (45, 45a), the adhesion layer being light-transmissive and on a principal surface (452, 452e) of the phosphor layer (45, 45a) which faces the substrate, the reflecting layer being on a principal surface of the adhesion layer which faces the substrate, and the joining part (42, 42b) includes: a first electrode layer which is on the principal surface of the substrate; a second electrode layer which is on a principal surface of the reflecting layer which faces the substrate; and a metal joining layer which is interposed between the first electrode layer and the second electrode layer to join the first electrode layer and the second electrode layer together. a first electrode layer which is on the principal surface of the substrate; a second electrode layer which is on a principal surface of the reflecting layer which faces the substrate; and a metal joining layer which is interposed between the first electrode layer and the second electrode layer to join the first electrode layer and the second electrode layer together.