mhurhangee/ep-ind-claims huggingface dataset:
A method for screening materials, such as aggregates and/or soils, said method comprising driving a meshed screening deck (6, 7) by machine power upon horizontal eccentric shafts eccentrically with respect to rotation axes bearing-mounted on a body, and forcing thereby each point of the screening deck (6, 7) to revolving motion continuously in the same rotating direction along a circular path, each eccentric shaft having a throw axis which revolves around the rotation axis along a circular path continuously in the same direction, whereby the eccentric shafts are linked to each other with a mechanical transmission element in order to rotate in synchronism, and rotating counterweights attached to the ends of the eccentric shafts extended through the body, which are in a high position whenever the screening decks and and a fastening frame (4a, 4b) thereof are in a low position, the counterweights thus balancing dynamic eccentric forces, characterized by, attaching bottom weights to a bottom portion of the fastening frame (4a, 4b) of the screening decks and, by which the center of mass of the screening decks and and the fastening frame (4a, 4b) thereof has been lowered to a location near or at the throw axis, whereby, when center of gravity common to the masses of movable components lies at the height of a plane extending through the rotating axis, all mass forces of movable components presently in said revolving motion are balanced with respect to the rotation axes.
A method for determining a temperature of at least one light emitting device in a circuit which includes a power supply for powering the device through first and second conductors (104, 106) by providing an operating current through the conductors (104, 106) and an operating voltage across the conductors (104, 106), where the device is operable to generate light in response to receiving the operating current in a range of operating currents and receiving the operating voltage in a range of operating voltages, the method comprising: Providing the operating current and operating voltage to the device through the first and second conductors (104, 106); applying at least one current pulse to the device, through the first and second conductors (104, 106) resulting in a voltage pulse; sensing the voltage pulse across the first and second conductors (104, 106) resulting from the applied pulse of current to determine a voltage magnitude of the voltage pulse; determining a current magnitude of the current pulse; and determining an operating temperature of the light emitting device at the provided operating current based on the current magnitude of the current pulse and the voltage magnitude of the voltage pulse, characterised in that: the device is a light-emitting diode, LED; and the at least one current pulse is superimposed on the operating current to the LED, through the first and second conductors (104, 106) resulting in a voltage pulse that is superimposed on the operating voltage. Providing the operating current and operating voltage to the device through the first and second conductors (104, 106); applying at least one current pulse to the device, through the first and second conductors (104, 106) resulting in a voltage pulse; sensing the voltage pulse across the first and second conductors (104, 106) resulting from the applied pulse of current to determine a voltage magnitude of the voltage pulse; determining a current magnitude of the current pulse; and determining an operating temperature of the light emitting device at the provided operating current based on the current magnitude of the current pulse and the voltage magnitude of the voltage pulse, characterised in that: the device is a light-emitting diode, LED; and the at least one current pulse is superimposed on the operating current to the LED, through the first and second conductors (104, 106) resulting in a voltage pulse that is superimposed on the operating voltage. the device is a light-emitting diode, LED; and the at least one current pulse is superimposed on the operating current to the LED, through the first and second conductors (104, 106) resulting in a voltage pulse that is superimposed on the operating voltage.
An audio encoding device for encoding an audio signal consisting of a plurality of frames, the audio encoding device comprising: an audio encoding unit for encoding the audio signal; and an auxiliary information encoding unit for estimating and encoding auxiliary information about a temporal change of power of the audio signal, the auxiliary information being used in packet loss concealment in decoding of the audio signal, wherein the auxiliary information encoding unit estimates and encodes a flag (F tran) of sudden change of power of an audio signal of a frame different than the current encoded frame by the audio encoding unit, as the auxiliary information, when the flag (F tran) indicates a predetermined mode, the auxiliary information encoding unit calculates a position (l tran) of the sudden change, and further estimates and encodes quantized transient power (I E) of a part at the position (l tran) of the sudden change of the frame different than the current encoded frame, as the auxiliary information, wherein the auxiliary information contains only the flag (F tran) and the quantized transient power (I E), and when the flag (F tran) does not indicate the predetermined mode, the auxiliary information encoding unit does not include the quantized transient power (I E) in the auxiliary information. an audio encoding unit for encoding the audio signal; and an auxiliary information encoding unit for estimating and encoding auxiliary information about a temporal change of power of the audio signal, the auxiliary information being used in packet loss concealment in decoding of the audio signal, wherein the auxiliary information encoding unit estimates and encodes a flag (F tran) of sudden change of power of an audio signal of a frame different than the current encoded frame by the audio encoding unit, as the auxiliary information, when the flag (F tran) indicates a predetermined mode, the auxiliary information encoding unit calculates a position (l tran) of the sudden change, and further estimates and encodes quantized transient power (I E) of a part at the position (l tran) of the sudden change of the frame different than the current encoded frame, as the auxiliary information, wherein the auxiliary information contains only the flag (F tran) and the quantized transient power (I E), and when the flag (F tran) does not indicate the predetermined mode, the auxiliary information encoding unit does not include the quantized transient power (I E) in the auxiliary information.
Method for issuing a digital certificate by a certification authority, wherein - a device sends a request message for the issuing of the certificate to the certification authority, - the certification authority receives the request message and sends a challenge to the device for the purpose of authenticating the device, - the device sends a response to the certification authority in answer to the received challenge, and - the certification authority checks the received response and generates and sends the certificate to the device if the response was identified as correct; wherein the generation of the challenge and response is based on a Diffie-Hellman method, and wherein - the certification authority generates a random number y that is known only to the certification authority and sends a first value Y = g y as challenge to the device, wherein g is a generator in accordance with the Diffie-Hellman method, - the device calculates a second value Y x from the received challenge Y and sends said second value Y x as response to the certification authority, wherein x is a third value that is known only to the device, and - the certification authority calculates a fourth value X y, where X = g x is a fifth value that is known both to the device and also to the certification authority, compares the calculated fourth value X y with the received second value Y x and sends the certificate to the device if the second and the fourth value match. - a device sends a request message for the issuing of the certificate to the certification authority, - the certification authority receives the request message and sends a challenge to the device for the purpose of authenticating the device, - the device sends a response to the certification authority in answer to the received challenge, and - the certification authority checks the received response and generates and sends the certificate to the device if the response was identified as correct; wherein the generation of the challenge and response is based on a Diffie-Hellman method, and wherein - the certification authority generates a random number y that is known only to the certification authority and sends a first value Y = g y as challenge to the device, wherein g is a generator in accordance with the Diffie-Hellman method, - the device calculates a second value Y x from the received challenge Y and sends said second value Y x as response to the certification authority, wherein x is a third value that is known only to the device, and - the certification authority calculates a fourth value X y, where X = g x is a fifth value that is known both to the device and also to the certification authority, compares the calculated fourth value X y with the received second value Y x and sends the certificate to the device if the second and the fourth value match.
An elevator propulsion device, comprising: at least one drive member, a motor module including at least one motor configured to cause movement of the drive member and corresponding movement of an elevator cab, and a power supply including at least one energy source that is configured to provide power to the motor, wherein the power supply is situated adjacent the motor module such that a mass of the at least one energy source provides a noise barrier configured to reduce transmission of noise from the motor into the elevator cab, wherein the power supply includes a plurality of energy sources and at least some of the energy sources are arranged as a first noise barrier layer configured to be between one side of the motor module and the elevator cab, characterised in that the at least one drive member is configured to engage and climb along a vertical structure; and others of the energy sources are arranged as a second noise barrier layer that is situated along another side of the motor module. at least one drive member, a motor module including at least one motor configured to cause movement of the drive member and corresponding movement of an elevator cab, and a power supply including at least one energy source that is configured to provide power to the motor, wherein the power supply is situated adjacent the motor module such that a mass of the at least one energy source provides a noise barrier configured to reduce transmission of noise from the motor into the elevator cab, wherein the power supply includes a plurality of energy sources and at least some of the energy sources are arranged as a first noise barrier layer configured to be between one side of the motor module and the elevator cab, characterised in that the at least one drive member is configured to engage and climb along a vertical structure; and others of the energy sources are arranged as a second noise barrier layer that is situated along another side of the motor module.
A knee prosthesis comprising: a femoral component for replacing at least a portion of a distal end of a femur, the femoral component having a femoral articular surface extending in an anteroposterior direction; and a tibial component for replacing at least a portion of a proximal end of a tibia, the tibial component having a tibial articular surface extending in an anteroposterior direction, characterized by a posterior portion of the tibial articular surface further including an articulation feature comprising at least one of: a raised ridge disposed at an angle that is generally acute to the anteroposterior direction of the tibial articular surface, and a convex, spherical articular surface. a femoral component for replacing at least a portion of a distal end of a femur, the femoral component having a femoral articular surface extending in an anteroposterior direction; and a tibial component for replacing at least a portion of a proximal end of a tibia, the tibial component having a tibial articular surface extending in an anteroposterior direction, characterized by a posterior portion of the tibial articular surface further including an articulation feature comprising at least one of: a raised ridge disposed at an angle that is generally acute to the anteroposterior direction of the tibial articular surface, and a convex, spherical articular surface. a raised ridge disposed at an angle that is generally acute to the anteroposterior direction of the tibial articular surface, and a convex, spherical articular surface.
A crystal form II of a key intermediate -1-(1-(tert-butyloxyl)pyrrolidine-3-yl)-3-cyano-4-(4-(2,6-difluorophenoxyl)phenyl)-1H-pyrrole-2-ethyl formate of a bruton tyrosine kinase inhibitor, wherein an X-ray powder diffraction pattern of the crystal form has the following characteristic peaks at 2θ: 9.34, 11.85, 14.36, 14.52, 15.25, 17.16, 18.79, 19.02, 20.49, 20.79, 22.44 and 24.02.
A method in a base station (404, 506, 606, 700) for controlling of resource allocation in a multi-carrier system that comprises a multiple of cells controlled by the base station, where each cell of said multiple of cells corresponds to a carrier that is associated with a respective Public Land Mobile Network, PLMN, the method comprises: - receiving (302, S-424, S-516, S-616) a User Equipment, UE, request comprising information of a UE (402, 502, 602) in a connected mode, where a first cell of said multiple of cells corresponds to a first carrier associated with a first PLMN, either comprises the UE or receives the UE in a handover procedure, - determining (304, S-428, S-520, S-626) based on base station settings and/or UE information, whether an other carrier associated with a respective PLMN being different from said first PLMN is available to said UE, - characterized in, if said other carrier is available to said UE, sending (306, S-430, S-440, S-524, S-530) a resource configuration message destined for said UE (402, 502, 602), enabling said UE to configure said other carrier as a Secondary Component Carrier, SCC. - receiving (302, S-424, S-516, S-616) a User Equipment, UE, request comprising information of a UE (402, 502, 602) in a connected mode, where a first cell of said multiple of cells corresponds to a first carrier associated with a first PLMN, either comprises the UE or receives the UE in a handover procedure, - determining (304, S-428, S-520, S-626) based on base station settings and/or UE information, whether an other carrier associated with a respective PLMN being different from said first PLMN is available to said UE, - characterized in, if said other carrier is available to said UE, sending (306, S-430, S-440, S-524, S-530) a resource configuration message destined for said UE (402, 502, 602), enabling said UE to configure said other carrier as a Secondary Component Carrier, SCC.
Edge processing method in which at least one edging strip (2, 2') is pressed against the narrow side of a plate-shaped workpiece of wood or wood substitute by means of a pressing device with relative movement of the pressing device and workpiece and is attached by heating a connecting means provided on the edging strip (2, 2') and/or the workpiece wherein the side of the edging strip ((2, 2') facing the workpiece forms a joining area with the workpiece characterised in that the joint area of the edging strip(s) (2, 2') is visually detected by means of an imaging system tracking the pressing device.
An imaging lens comprising in order from an object side: a front group having negative power; an aperture stop; and a rear group having positive power, wherein in the front group, a first lens surface closest to the object side has a convex shape toward the object side, wherein in the rear group, a second lens surface closest to the object side has a convex shape toward the object side, a third lens surface closest to an image side has a convex shape toward the image side, and the third lens surface has an infrared ray cut coat, wherein a curvature radius of the second lens surface is represented by Rr, a curvature radius of the third lens surface is represented by Re, a distance from the second lens surface to the third lens surface on an optical axis is represented by Da, and the following condition is satisfied: 1.6 < Rr + Re / Da < 2.3 and wherein (i) the front group includes a concave meniscus-shaped first lens having the first lens surface and a concave meniscus-shaped second lens in order from the object side, and the second lens is arranged with its convex surface facing the image side and/or (ii) the rear group includes a third lens having the second lens surface, a fourth lens, and a cemented lens in order from the object side, and the third lens, the fourth lens, and the cemented lens all have positive power. a front group having negative power; an aperture stop; and a rear group having positive power, wherein in the front group, a first lens surface closest to the object side has a convex shape toward the object side, wherein in the rear group, a second lens surface closest to the object side has a convex shape toward the object side, a third lens surface closest to an image side has a convex shape toward the image side, and the third lens surface has an infrared ray cut coat, wherein a curvature radius of the second lens surface is represented by Rr, a curvature radius of the third lens surface is represented by Re, a distance from the second lens surface to the third lens surface on an optical axis is represented by Da, and the following condition is satisfied: 1.6 < Rr + Re / Da < 2.3 and wherein (i) the front group includes a concave meniscus-shaped first lens having the first lens surface and a concave meniscus-shaped second lens in order from the object side, and the second lens is arranged with its convex surface facing the image side and/or (ii) the rear group includes a third lens having the second lens surface, a fourth lens, and a cemented lens in order from the object side, and the third lens, the fourth lens, and the cemented lens all have positive power. (i) the front group includes a concave meniscus-shaped first lens having the first lens surface and a concave meniscus-shaped second lens in order from the object side, and the second lens is arranged with its convex surface facing the image side and/or (ii) the rear group includes a third lens having the second lens surface, a fourth lens, and a cemented lens in order from the object side, and the third lens, the fourth lens, and the cemented lens all have positive power.
Use of an optical system comprising: a diffractive optical element disposed along a beam path and having an input surface, an output surface opposing the input surface, and a predetermined thickness (t) extending between the input surface and the output surface, a lens disposed along the beam path a predetermined distance from the output surface and operable to receive a laser beam exiting the output surface; and a propagation path extending from the lens to a target position along the beam path, for reducing the variation of a laser beam intensity profile, wherein a laser beam intensity profile at the input surface is characterized by a first intensity profile across the beam having a variation greater than 10%; wherein a laser beam intensity profile at a surface of the lens is characterized by a second intensity profile across the beam; and wherein a laser beam intensity profile at the target position is characterized by a third intensity profile across the beam varying less than 5%, characterized in that the diffractive optical element includes a photo-thermo-refractive material, and in that the diffractive optical element has a continuous variation in the index of refraction. a diffractive optical element disposed along a beam path and having an input surface, an output surface opposing the input surface, and a predetermined thickness (t) extending between the input surface and the output surface, a lens disposed along the beam path a predetermined distance from the output surface and operable to receive a laser beam exiting the output surface; and a propagation path extending from the lens to a target position along the beam path, for reducing the variation of a laser beam intensity profile, wherein a laser beam intensity profile at the input surface is characterized by a first intensity profile across the beam having a variation greater than 10%; wherein a laser beam intensity profile at a surface of the lens is characterized by a second intensity profile across the beam; and wherein a laser beam intensity profile at the target position is characterized by a third intensity profile across the beam varying less than 5%, characterized in that the diffractive optical element includes a photo-thermo-refractive material, and in that the diffractive optical element has a continuous variation in the index of refraction.
An assembly capable of being disposed in a bore, the assembly comprising: a body made from a first material, the body comprising a wall having an opening in a portion of the wall; and a member disposed in the opening and coupled to the body, the member being made from a second material selected from the group comprising of carbon steel and aluminum alloy, the second material having a tensile strength lower than the tensile strength of the first material, wherein at least part of the member is capable of being milled after being disposed in the bore, wherein the member comprises an outer diameter portion and an inner diameter portion, the outer diameter portion being disposed exterior to the body, the inner diameter portion being disposed in an inner diameter defined by the body and the member, the inner diameter portion and the outer diameter portion being configured to couple the member to the body and to provide a seal between the inner diameter and an outer diameter of the body. a body made from a first material, the body comprising a wall having an opening in a portion of the wall; and a member disposed in the opening and coupled to the body, the member being made from a second material selected from the group comprising of carbon steel and aluminum alloy, the second material having a tensile strength lower than the tensile strength of the first material, wherein at least part of the member is capable of being milled after being disposed in the bore, wherein the member comprises an outer diameter portion and an inner diameter portion, the outer diameter portion being disposed exterior to the body, the inner diameter portion being disposed in an inner diameter defined by the body and the member, the inner diameter portion and the outer diameter portion being configured to couple the member to the body and to provide a seal between the inner diameter and an outer diameter of the body.