mhurhangee/ep-ind-claims huggingface dataset:
A method for scalable video decoding supporting a plurality of layers, the method comprising: receiving a video parameter set in a bitstream including the plurality of layers; acquiring, from the video parameter set, a syntax element `vps_max_sub_layers_minus1', a value of the 'vps_max_sub_layers_minus1' plus 1 specifying a maximum number of sub-layers for all the layers in the bitstream; acquiring, from the video parameter set, a flag indicating whether a maximum number of sub-layers of a i-th layer is determined by the 'vps_max_sub_layers_minus1' or i-th layer information, the i-th layer being one of the plurality of layers of the bitstream; acquiring, from the video parameter set, the i-th layer information according to the flag, a value of the i-th layer information plus 1 specifying the maximum number of the sub-layers of the i-th layer; and determining the maximum number of the sub-layers of the i-th layer according to the flag, wherein the 'vps_max_sub_layers_minus1' for all the layers is obtained in a unit of the bitstream, and the i-th layer information is obtained in a unit of a layer, wherein, in response to a value of the flag being a first value, the i-th layer information is not acquired, and the maximum number of the sub-layers of the i-th layer is determined by adding the value of the 'vps_max_sub_layers_minus1' to 1, and wherein, in response to a value of the flag being a second value, the i-th layer information is acquired, and the maximum number of the sub-layers of the i-th layer is determined by adding the value of the i-th layer information to 1. receiving a video parameter set in a bitstream including the plurality of layers; acquiring, from the video parameter set, a syntax element `vps_max_sub_layers_minus1', a value of the 'vps_max_sub_layers_minus1' plus 1 specifying a maximum number of sub-layers for all the layers in the bitstream; acquiring, from the video parameter set, a flag indicating whether a maximum number of sub-layers of a i-th layer is determined by the 'vps_max_sub_layers_minus1' or i-th layer information, the i-th layer being one of the plurality of layers of the bitstream; acquiring, from the video parameter set, the i-th layer information according to the flag, a value of the i-th layer information plus 1 specifying the maximum number of the sub-layers of the i-th layer; and determining the maximum number of the sub-layers of the i-th layer according to the flag, wherein the 'vps_max_sub_layers_minus1' for all the layers is obtained in a unit of the bitstream, and the i-th layer information is obtained in a unit of a layer, wherein, in response to a value of the flag being a first value, the i-th layer information is not acquired, and the maximum number of the sub-layers of the i-th layer is determined by adding the value of the 'vps_max_sub_layers_minus1' to 1, and wherein, in response to a value of the flag being a second value, the i-th layer information is acquired, and the maximum number of the sub-layers of the i-th layer is determined by adding the value of the i-th layer information to 1.
A composition comprising a solid mixture comprising a) at least one uncrosslinked copolymer having a backbone comprising i) a plurality of thermo-responsive structural units derived from one or more than one first monomer, which is an N-alkyl or N,N-dialkyl substituted (alkyl)acrylamide monomer, and ii) a plurality of hydrophilic structural units derived from one or more than one second monomer, which is an ethylenically unsaturated monomer, and b) at least one poorly water soluble substance having as such a solubility in deionized water of pH 7.0 of 200 mg/L or less at a temperature of 23°C and an atmospheric pressure of 1013 hPa (1 atm), wherein the molar ratio of the thermo-responsive structural units i) to the hydrophilic structural units ii) comprised in the copolymer is in a range from 1:1 to 10:1 and wherein the thermo-responsive structural units i) and hydrophilic structural units ii) are more than 80 mol% based on the total amount of monomer-derived structural units constituting the copolymer. a) at least one uncrosslinked copolymer having a backbone comprising i) a plurality of thermo-responsive structural units derived from one or more than one first monomer, which is an N-alkyl or N,N-dialkyl substituted (alkyl)acrylamide monomer, and ii) a plurality of hydrophilic structural units derived from one or more than one second monomer, which is an ethylenically unsaturated monomer, and i) a plurality of thermo-responsive structural units derived from one or more than one first monomer, which is an N-alkyl or N,N-dialkyl substituted (alkyl)acrylamide monomer, and ii) a plurality of hydrophilic structural units derived from one or more than one second monomer, which is an ethylenically unsaturated monomer, and b) at least one poorly water soluble substance having as such a solubility in deionized water of pH 7.0 of 200 mg/L or less at a temperature of 23°C and an atmospheric pressure of 1013 hPa (1 atm),
A wear-resistant lining element which is intended for a surface subjected to wear and which has an outwardly directed surface, over which material in the form of pieces or particles, such as crushed ore and crushed rock material, is intended to move, said wear-resistant lining element comprising elastomeric material, characterized in that said wear-resistant lining element has a metal profile at least partly embedded along an outer edge of said wear-resistant lining element by vulcanization or hardening, wherein an edge of said metal profile is exposed along the outer edge of said wear-resistant lining element such that the edge of the metal profile is weldable to said surface subjected to wear; wherein said wear-resistant lining element prevents material from traveling in between said outer edge of said wear-resistant lining element and said surface subjected to wear, and wherein said metal profile protects the elastomeric material on the outer edge of said wear-resistant lining element.
Method for detecting and preventing leakages in a double-walled container for storing toxic, corrosive, irritating and/or flammable media, the double-walled container having an inner wall and an outer wall, a cavity being formed between the inner wall and the outer wall, an overpressure being generated in the cavity, a gas being supplied to the cavity in the event of a leakage in the inner wall in order to maintain an overpressure in the cavity, characterised in that the overpressure in the cavity is measured and the pressure and/or the flow of the gas supplied to the cavity is controlled such that the overpressure in the cavity relative to the pressure inside the double-walled container is between 5 mbar and 50 mbar.
Method for assembling an electronic module comprising a member assembled on a support by sintering of a mass of conductive powder intended to form a joint between the member and the support, said method comprising a step of heating of the mass to a predetermined temperature and, before the step of heating of the mass, the following steps: - the mass of conductive powder is placed on the support then the member is placed on the mass, - a force of compression of the member against the mass and the support is applied and the intensity of the compression force is varied so that, - the intensity is increased from an initial value to a first predefined value of agglomeration of the mass, below a threshold of plastic deformation of the mass of powder, - the intensity is maintained at the first predetermined value for a predetermined time of agglomeration of the mass of powder so that the particles of powder of the mass are brought into contact with one another under the effect of the compression force throughout the predetermined agglomeration time, - the intensity is increased from the first value to a second predefined value below a critical threshold of damage to the member but above a minimum threshold of sintering of the mass for the predetermined temperature, the second predefined value being greater than the first predefined value. - the mass of conductive powder is placed on the support then the member is placed on the mass, - a force of compression of the member against the mass and the support is applied and the intensity of the compression force is varied so that, - the intensity is increased from an initial value to a first predefined value of agglomeration of the mass, below a threshold of plastic deformation of the mass of powder, - the intensity is maintained at the first predetermined value for a predetermined time of agglomeration of the mass of powder so that the particles of powder of the mass are brought into contact with one another under the effect of the compression force throughout the predetermined agglomeration time, - the intensity is increased from the first value to a second predefined value below a critical threshold of damage to the member but above a minimum threshold of sintering of the mass for the predetermined temperature, the second predefined value being greater than the first predefined value. - the intensity is increased from an initial value to a first predefined value of agglomeration of the mass, below a threshold of plastic deformation of the mass of powder, - the intensity is maintained at the first predetermined value for a predetermined time of agglomeration of the mass of powder so that the particles of powder of the mass are brought into contact with one another under the effect of the compression force throughout the predetermined agglomeration time, - the intensity is increased from the first value to a second predefined value below a critical threshold of damage to the member but above a minimum threshold of sintering of the mass for the predetermined temperature, the second predefined value being greater than the first predefined value.
A shovel comprising: a lower traveling structure; an upper swing structure swingably mounted on the lower traveling structure; an attachment (4, 5, 6) attached to the upper swing structure; an actuator (7, 8, 9) configured to drive the attachment (4, 5, 6); an engine mounted on the upper swing structure; a hydraulic pump configured to be driven by the engine to discharge hydraulic oil; a hydraulic circuit configured to circulate the hydraulic oil discharged by the hydraulic pump to the actuator (7, 8, 9); a negative control pressure sensor provided in the hydraulic circuit to detect a pressure of the hydraulic oil at a predetermined position in the hydraulic circuit; and a control device configured to decrease a flow rate of the hydraulic oil discharged by the hydraulic pump to a standby flow rate based on the pressure detected by the negative control pressure sensor, characterized in that the control device is configured to limit an increase in the flow rate of the hydraulic oil discharged by the hydraulic pump to a predetermined value or less, in a case of increasing the flow rate from the standby flow rate in response to a decrease in the detected pressure, the decrease being caused by supplying the hydraulic oil to the actuator (7, 8, 9) in response to the actuator (7, 8, 9) being operated. a lower traveling structure; an upper swing structure swingably mounted on the lower traveling structure; an attachment (4, 5, 6) attached to the upper swing structure; an actuator (7, 8, 9) configured to drive the attachment (4, 5, 6); an engine mounted on the upper swing structure; a hydraulic pump configured to be driven by the engine to discharge hydraulic oil; a hydraulic circuit configured to circulate the hydraulic oil discharged by the hydraulic pump to the actuator (7, 8, 9); a negative control pressure sensor provided in the hydraulic circuit to detect a pressure of the hydraulic oil at a predetermined position in the hydraulic circuit; and a control device configured to decrease a flow rate of the hydraulic oil discharged by the hydraulic pump to a standby flow rate based on the pressure detected by the negative control pressure sensor, characterized in that the control device is configured to limit an increase in the flow rate of the hydraulic oil discharged by the hydraulic pump to a predetermined value or less, in a case of increasing the flow rate from the standby flow rate in response to a decrease in the detected pressure, the decrease being caused by supplying the hydraulic oil to the actuator (7, 8, 9) in response to the actuator (7, 8, 9) being operated.
A method for separating a workpiece using a punch, characterized in that retraction forces, which act on the punch during retraction to an initial position after a separation process, are measured as a function of a punch position, wherein, by comparison with known data, when the punch is to be reworked or, if necessary, replaced is predicted.
Method for severing a solid body, wherein a high-energy beam travels along a contour on a surface of the solid body facing the high-energy beam and herein produces a cutting gap, wherein a control unit that controls the severing has a function for detecting contour breaches and a function for avoiding contour breaches, characterised in that at least one item of information relating to at least one feature of at least one defined contour is stored in the control unit, the information is detected by the control unit and, when the information is detected, the contour breach avoidance is automatically deactivated.
A scooter-type vehicle having an underfloor fuel tank with a fuel tank disposed on a front side of an engine, characterized in that a lengthwise direction of a canister is disposed to be oriented in a longitudinal vehicle direction, and hoses (122, 123, 124, 125) extend in the longitudinal vehicle direction of the canister, the canister is disposed at a position overlapping with the fuel tank in side view and is disposed below an uppermost end (38A3) of the fuel tank, a fuel filler port is provided at a front portion of the fuel tank, the fuel tank is formed to be inclined rearwardly downward from a front toward a rear of the fuel tank, the canister is disposed between the uppermost end (38A3) of the fuel tank and a division surface of the fuel tank in a vertical direction, characterized in that the canister is disposed at a rear portion of the fuel tank above the division surface and a charge hose connecting the fuel filler port and the canister is routed along the division surface of the fuel tank. characterized in that a lengthwise direction of a canister is disposed to be oriented in a longitudinal vehicle direction, and hoses (122, 123, 124, 125) extend in the longitudinal vehicle direction of the canister, the canister is disposed at a position overlapping with the fuel tank in side view and is disposed below an uppermost end (38A3) of the fuel tank, a fuel filler port is provided at a front portion of the fuel tank, the fuel tank is formed to be inclined rearwardly downward from a front toward a rear of the fuel tank, the canister is disposed between the uppermost end (38A3) of the fuel tank and a division surface of the fuel tank in a vertical direction, characterized in that the canister is disposed at a rear portion of the fuel tank above the division surface and a charge hose connecting the fuel filler port and the canister is routed along the division surface of the fuel tank.
A magnetic resonance temperature probe, comprising: a fiber optic sensor probe which includes a non-ferrous temperature sensor on a distal portion configured for insertion into a subject, a locking element connected to the distal portion, and a proximal portion connected to the locking element and in light communication via an optical fiber with the non-ferrous sensor, said fiber optic sensor probe further including a connector for connecting the proximal portion via a fiber optic connector to a magnetic resonance system; a disposable sheath configured to cover the distal portion of the fiber optic sensor probe and to provide a non-permeable sterile outer surface, said disposable sheath having a proximal end configured to frictionally engage the locking element. a fiber optic sensor probe which includes a non-ferrous temperature sensor on a distal portion configured for insertion into a subject, a locking element connected to the distal portion, and a proximal portion connected to the locking element and in light communication via an optical fiber with the non-ferrous sensor, said fiber optic sensor probe further including a connector for connecting the proximal portion via a fiber optic connector to a magnetic resonance system; a disposable sheath configured to cover the distal portion of the fiber optic sensor probe and to provide a non-permeable sterile outer surface, said disposable sheath having a proximal end configured to frictionally engage the locking element.
Conveying and metering device having - an endless apron belt that is movable by means of rollers on guide rails (3, 43), - wherein sections of the guide rail that are opposite one another are separated from the adjacent sections and, for determining the mass of the conveyed material, are supported on weighing devices that are connected to an electronic analysis device, characterized in that the sections of the guide rail to be weighed, together with longitudinal members and transverse struts that are perpendicular to the longitudinal members, form a weighing frame, and this weighing frame is supported at each of its four corners on a separate weighing device, wherein an adjustable centering device is provided between the weighing frame and each of the weighing devices. - an endless apron belt that is movable by means of rollers on guide rails (3, 43), - wherein sections of the guide rail that are opposite one another are separated from the adjacent sections and, for determining the mass of the conveyed material, are supported on weighing devices that are connected to an electronic analysis device,
An ink composition, comprising: an aqueous liquid vehicle; from 2 wt% to 7 wt% self-dispersed pigment dispersed in the aqueous liquid vehicle; and from 0.1 wt% to 1 wt% monovalent salt, wherein the self-dispersed pigment to monovalent salt weight ratio in the ink composition is from 3:1 to 35:1, wherein the self-dispersed pigment has a crash point at a molar concentration of the monovalent salt in the ink composition, and wherein the monovalent salt is present at from 30% to 95% of the molar concentration of the crash point and wherein the self-dispersed pigment is yellow or magenta, and the crash point is from 0.01 M to 0.05 M; or the self-dispersed pigment is cyan, and the crash point is from 0.03 M to 0.1 M. an aqueous liquid vehicle; from 2 wt% to 7 wt% self-dispersed pigment dispersed in the aqueous liquid vehicle; and from 0.1 wt% to 1 wt% monovalent salt, wherein the self-dispersed pigment to monovalent salt weight ratio in the ink composition is from 3:1 to 35:1,
Dispensing cabinet for a controlled dispensing of objects, in particular tools, to authorized users, having - a housing, - a storage unit which is arranged in the housing and has a plurality of storage spaces for the objects, - an input means for selecting an object to be dispensed and for inputting object- and/or user-related data, and - a control unit, through which an authorization of the user can be verified on the basis of the data, - wherein on the housing a dispensing opening is provided, on which several lockable access doors are arranged, - a drive means is arranged for moving the storage unit inside the housing, wherein a storage space containing the selected object can be positioned at the dispensing opening, and - through the control unit the drive means can be controlled in order to position the selected object in front of the dispensing opening and the access door in front of the storage space containing the desired object can be unlocked in order to give access to a user, characterized in that - the housing has a box-shaped design consisting of support profiles, wherein the lateral surfaces are closed by wall plates, - for access to the interior of the housing a front door is arranged on a front side of the housing between the support profiles, said front door being articulated by hinges and lockable by locks, - on the front door the input means and in a center area the access doors are provided, and - through the control unit a usage of the objects can be controlled and in the case of a shortfall of a storage minimum number a reordering of objects can be carried out. - a housing, - a storage unit which is arranged in the housing and has a plurality of storage spaces for the objects, - an input means for selecting an object to be dispensed and for inputting object- and/or user-related data, and - a control unit, through which an authorization of the user can be verified on the basis of the data, - wherein on the housing a dispensing opening is provided, on which several lockable access doors are arranged, - a drive means is arranged for moving the storage unit inside the housing, wherein a storage space containing the selected object can be positioned at the dispensing opening, and - through the control unit the drive means can be controlled in order to position the selected object in front of the dispensing opening and the access door in front of the storage space containing the desired object can be unlocked in order to give access to a user, - the housing has a box-shaped design consisting of support profiles, wherein the lateral surfaces are closed by wall plates, - for access to the interior of the housing a front door is arranged on a front side of the housing between the support profiles, said front door being articulated by hinges and lockable by locks, - on the front door the input means and in a center area the access doors are provided, and - through the control unit a usage of the objects can be controlled and in the case of a shortfall of a storage minimum number a reordering of objects can be carried out.
Lock, comprising a lock case, a lock cylinder, a latch and a lock follower rotatably mounted in the lock case, the lock follower having two follower parts (30, 32), of which one follower part can be operated from one side of the lock and the other follower part can be operated from the other side of the lock, the follower parts (30, 32) being rotatable relative to one another and it being possible for said parts to be non-rotatably coupled to one another by means of a coupling element, a coupling slide being arranged between the lock follower and the lock cylinder, which coupling slide is mounted in the lock case so as to be displaceable in a displacement direction and being displaceable between a position which is lowered relative to the lock cylinder and a raised position, the coupling slide being displaceable into the raised position by actuation of the lock cylinder, as a result of which the coupling element is brought into an engaged position in which the two follower parts (30, 32) are non-rotatably coupled to one another, a pressure piece being arranged in the lock case, which engages behind the coupling slide when it is displaced the raised position, characterized in that the pressure piece is pivotally mounted and biased relative to the coupling slide by means of a spring so that when the coupling slide is displaced into the raised position, the pressure piece is pivoted away from the coupling slide, starting from an initial position, by contact with a portion of the coupling slide, the pressure piece being pivoted back into the initial position by the spring after the portion of the coupling slide has passed the pressure piece.