mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator door body, comprising a door body frame, wherein the door body frame comprises sheet metal frames on left and right sides, end covers located on upper and lower sides, a portion of the end cover matching with the sheet metal frame is provided with a side flange protruding toward the sheet metal frame, and a shape of the side flange matches a shape of the sheet metal frame; the end cover is further provided with a covering edge which is spaced apart from the side flange and located on an outer side of the side flange, the covering edge and the side flange surround to form an insertion slot for insertion of the sheet metal frame; after the end covers and the sheet metal frames are assembled, the side flange is fitted to an inner side of the sheet metal frame, and the covering edge is fitted to an outer side of the sheet metal frame, wherein the sheet metal frame comprises a side plate, end plates extending in the same direction from front and rear ends of the side plate in a direction perpendicular to a plane where the side plate is located and two bent plates which are formed by bending inward from a side of both end plates away from the side plate; the refrigerator door body further comprising connecting assemblies, wherein each connecting assembly includes a connecting member, a first fixing member for fixing the connecting member to the sheet metal frame, and a second fixing member for fixing the end cover to the connecting member, wherein the connecting member comprises a first connecting portion for connecting with a bent plate of the sheet metal frame and a second connecting portion for connecting with the end cover, the first connecting portion and the second connecting portion are arranged side by side in a horizontal direction. wherein the sheet metal frame comprises a side plate, end plates extending in the same direction from front and rear ends of the side plate in a direction perpendicular to a plane where the side plate is located and two bent plates which are formed by bending inward from a side of both end plates away from the side plate; the refrigerator door body further comprising connecting assemblies, wherein each connecting assembly includes a connecting member, a first fixing member for fixing the connecting member to the sheet metal frame, and a second fixing member for fixing the end cover to the connecting member, wherein the connecting member comprises a first connecting portion for connecting with a bent plate of the sheet metal frame and a second connecting portion for connecting with the end cover, the first connecting portion and the second connecting portion are arranged side by side in a horizontal direction.
A system for controlling the pitch setting of a propeller vane for an aircraft turbine engine, which comprises: - a vane comprising a blade connected to a root, - a cup comprising an annular wall extending around an pitch axis of the vane, this annular wall comprising a lower axial end closed by a bottom wall, and an upper axial end which is open and configured to allow the mounting of the root of the vane inside the cup, the bottom wall comprising a recess having a non-circular cross-section and configured to receive a free end of complementary shape of said root so that the cup is secured in rotation to the root about said axis, the system for controlling the pitch setting of a propeller vane being characterized in that: - an immobilisation ring extending around said axis and mounted around the root, this immobilisation ring being mounted within the cup and cooperating respectively with the root and the annular wall of the cup in order to ensure the axial retention of the root in the cup, and in that the system further comprises at least one safety element (110, 110') which ensures the retention of the root from the cup, said at least one safety element (110, 110') having a generally elongated shape and extending transversely to said axis, said at least one safety element (110, 110') passing through aligned orifices (112, 114, 126) in the bottom wall of the cup as well as in the free end of the root. - a vane comprising a blade connected to a root, - a cup comprising an annular wall extending around an pitch axis of the vane, this annular wall comprising a lower axial end closed by a bottom wall, and an upper axial end which is open and configured to allow the mounting of the root of the vane inside the cup, the bottom wall comprising a recess having a non-circular cross-section and configured to receive a free end of complementary shape of said root so that the cup is secured in rotation to the root about said axis, - an immobilisation ring extending around said axis and mounted around the root, this immobilisation ring being mounted within the cup and cooperating respectively with the root and the annular wall of the cup in order to ensure the axial retention of the root in the cup,
De-trenching apparatus and buried cable or pipeline, the de-trenching apparatus being configured to extract the buried cable or pipeline having a minimum bend radius, the apparatus comprising: a channel configured to receive the buried cable or pipeline to be extracted, the channel comprising a first flared opening at a front end of the de-trenching apparatus and a second flared opening at the rear end of the de-trenching apparatus, the first and second flared openings each having a curved surface configured to support the line during extraction, wherein the curved surface of the first and the second flared openings have a radius of curvature greater than or equal to the minimum bend radius of the buried cable or pipeline to be extracted; and material removal means for removing material from around the buried cable or pipeline ahead of the de-trenching apparatus. a channel configured to receive the buried cable or pipeline to be extracted, the channel comprising a first flared opening at a front end of the de-trenching apparatus and a second flared opening at the rear end of the de-trenching apparatus, the first and second flared openings each having a curved surface configured to support the line during extraction, wherein the curved surface of the first and the second flared openings have a radius of curvature greater than or equal to the minimum bend radius of the buried cable or pipeline to be extracted; and material removal means for removing material from around the buried cable or pipeline
Acceleration limiting means for gun-carrier-induced movements acting on a weapon which is installed on a carrier moving with an object, characterized by the following steps: a) measuring the movement of the carrier during the time in which the weapon is not in use, b) storing the continuously measured data of the measuring system, c) determining a history of the maximally occurring accelerations of the carrier, d) using these maximally occurring accelerations for the limitation of the current measurement data of the measuring system used in the gun control during a firing sequence of the weapon. a) measuring the movement of the carrier during the time in which the weapon is not in use, b) storing the continuously measured data of the measuring system, c) determining a history of the maximally occurring accelerations of the carrier, d) using these maximally occurring accelerations for the limitation of the current measurement data of the measuring system used in the gun control during a firing sequence of the weapon.
A method for producing a surface structure on a pressing tool, which is designed as a pressing plate, an endless belt or an embossing roller, comprising at least the steps: - at least a onetime application of a mask in order to cover partial regions and - at least a onetime application of a metal layer to the non-covered regions in order to construct a surface structure composed of elevations, characterized in that the mask and the metal layer are applied several times, layer by layer, and that etching of the pressing plate, the endless belt and/or the embossing roller is entirely dispensed with during these method steps. - at least a onetime application of a mask in order to cover partial regions and - at least a onetime application of a metal layer to the non-covered regions in order to construct a surface structure composed of elevations,
An injector head (10, 110) for feeding a tool string support member downhole, the injector head (10, 110) comprising: a first gripping device (12, 112); a second gripping device (14, 114), the first and second gripping devices (12, 112, 14, 114) adapted to grip a tool string support member passing through an injector head passageway; characterised by a single actuator movable between a first position and a second position; wherein, movement of the single actuator between the first and second positions moves at least a portion of both of the first and second gripping devices (12, 112, 14, 114) towards or away from a passageway longitudinal axis. a first gripping device (12, 112); a second gripping device (14, 114), the first and second gripping devices (12, 112, 14, 114) adapted to grip a tool string support member passing through an injector head passageway;
A frozen dessert comprising: (a) A deformable container that returns to exactly its original state after being deformed; (b) A shell of first solid fat-based edible composition applied to an interior surface of the deformable container; (c) A filling for the shell, the filling consisting of a frozen confection and more than one ribbon of a second solid fat-based edible composition, wherein the ribbons adopt a wave configuration in the frozen dessert; and (d) A lid of third solid fat-based edible composition for the shell thereby to enclose the filling, wherein the ribbons of a second solid fat-based edible composition are orientated vertically in relation to the base of the deformable container, and wherein when the filling comprises more than one ribbon of a second solid fat-based edible composition, the more than one ribbon of a second solid fat-based edible composition are in spaced arrangement within the frozen confection; and wherein the first, second and third solid fat based compositions are compositions chosen from the group consisting of chocolate, chocolate analogue and fruit-fat composition; wherein the shell has a wall thickness of 0.5 to 3 mm and a Young's modulus of 0.3-5.0 GPa at a serving temperature of -18 degrees centigrade, measured according to the method of Example 3 of the description, and the frozen confection has a Vickers hardness of 0.042-0.36 at a serving temperature of -18 degrees centigrade measured according to BSi 427,1990. (a) A deformable container that returns to exactly its original state after being deformed; (b) A shell of first solid fat-based edible composition applied to an interior surface of the deformable container; (c) A filling for the shell, the filling consisting of a frozen confection and more than one ribbon of a second solid fat-based edible composition, wherein the ribbons adopt a wave configuration in the frozen dessert; and (d) A lid of third solid fat-based edible composition for the shell thereby to enclose the filling, wherein the ribbons of a second solid fat-based edible composition are orientated vertically in relation to the base of the deformable container, and wherein when the filling comprises more than one ribbon of a second solid fat-based edible composition, the more than one ribbon of a second solid fat-based edible composition are in spaced arrangement within the frozen confection; and wherein the first, second and third solid fat based compositions are compositions chosen from the group consisting of chocolate, chocolate analogue and fruit-fat composition; wherein the shell has a wall thickness of 0.5 to 3 mm and a Young's modulus of 0.3-5.0 GPa at a serving temperature of -18 degrees centigrade, measured according to the method of Example 3 of the description, and the frozen confection has a Vickers hardness of 0.042-0.36 at a serving temperature of -18 degrees centigrade measured according to BSi 427,1990.
A stator core for an electric motor, the stator core comprising a core body having a back yoke in a cylindrical shape, and a plurality of teeth extending from the back yoke radially inward of the stator core; a slot located between adjacent ones of the teeth; and an insulating member integrated with the core body, the insulating member having a linear expansion coefficient different from a linear expansion coefficient of the core body, wherein a peripheral wall portion forms a peripheral wall of the core body and has an inner peripheral wall portion forming a peripheral wall of the slot, and an outer peripheral wall portion forming an outer peripheral wall of the core body, the insulating member is located at at least the inner peripheral wall portion, in each slot the insulating member is divided by a clearance into two separate parts having contact portions in a circumferential direction of the slot, each contact portion extending throughout a cylinder axial direction of the stator core and being in contact with the inner peripheral wall portion, and each clearance extending throughout the cylinder axial direction such as to reduce the thermal stress generated in the insulating member caused by the difference in the linear expansion coefficient between the insulating member and the core body, and the inner peripheral wall portion includes a recess recessed toward an outside of the slot and extending throughout the cylinder axial direction of the stator core, in an area including a first portion radially outside of the clearance and a second portion circumferentially around the first portion a core body having a back yoke in a cylindrical shape, and a plurality of teeth extending from the back yoke radially inward of the stator core; a slot located between adjacent ones of the teeth; and an insulating member integrated with the core body, the insulating member having a linear expansion coefficient different from a linear expansion coefficient of the core body, wherein a peripheral wall portion forms a peripheral wall of the core body and has an inner peripheral wall portion forming a peripheral wall of the slot, and an outer peripheral wall portion forming an outer peripheral wall of the core body, the insulating member is located at at least the inner peripheral wall portion, in each slot the insulating member is divided by a clearance into two separate parts having contact portions in a circumferential direction of the slot, each contact portion extending throughout a cylinder axial direction of the stator core and being in contact with the inner peripheral wall portion, and each clearance extending throughout the cylinder axial direction such as to reduce the thermal stress generated in the insulating member caused by the difference in the linear expansion coefficient between the insulating member and the core body, and the inner peripheral wall portion includes a recess recessed toward an outside of the slot and extending throughout the cylinder axial direction of the stator core, in an area including a first portion radially outside of the clearance and a second portion circumferentially around the first portion
A method for the measurement of a resistance of a switching contact of an electrical circuit breaker, comprising: - determining a first resistance value across the circuit breaker while the circuit breaker is grounded at both sides and the switching contact is closed, characterized in that the method further comprises: - determining a second resistance value across the circuit breaker while the circuit breaker is grounded at both sides and the switching contact is open, and - determining the resistance of the closed switching contact on the basis of the first resistance value and the second resistance value. - determining a first resistance value across the circuit breaker while the circuit breaker is grounded at both sides and the switching contact is closed, characterized in that the method further comprises: - determining a second resistance value across the circuit breaker while the circuit breaker is grounded at both sides and the switching contact is open, and - determining the resistance of the closed switching contact on the basis of the first resistance value and the second resistance value.
A method for determining the authenticity of an object (500, 600, 700, 800), comprising the following method steps - marking the object (500, 600, 700, 800) with a first phosphor having a first temporal decay behaviour, - marking the object (500, 600, 700, 800) with a second phosphor having a second decay behaviour which differs from the first decay behaviour, - exciting of the phosphors (L1, L2) with a light pulse, - measuring the afterglow intensities (I(λ1,t), I(λ2,t)) of both phosphors (L1, L2) after excitation with the light pulse, characterised by - forming a difference (Δ(I(λ1,t), I(λ2,t))) or identity signal from the afterglow intensities (I(λ1,t), I(λ2,t)) measured over the elapsed time (t), - determining the time (t Δ0 (I(λ1,t), I(λ2, t))) of a zero crossing of the difference signal (Δ(I(λ1,t), I(λ2,t))) or the time (t Δ0 (I(λ1,t), I(λ2, t))) of the identity signal of a comparator, wherein in the latter case an identical signal level is determined by an identity signal of a comparator, - comparing the time (t Δ0 (I(λ1,t), I(λ2, t))) determined by the zero crossing or by the identity signal with a target value. - marking the object (500, 600, 700, 800) with a first phosphor having a first temporal decay behaviour, - marking the object (500, 600, 700, 800) with a second phosphor having a second decay behaviour which differs from the first decay behaviour, - exciting of the phosphors (L1, L2) with a light pulse, - measuring the afterglow intensities (I(λ1,t), I(λ2,t)) of both phosphors (L1, L2) after excitation with the light pulse, characterised by - forming a difference (Δ(I(λ1,t), I(λ2,t))) or identity signal from the afterglow intensities (I(λ1,t), I(λ2,t)) measured over the elapsed time (t), - determining the time (t Δ0 (I(λ1,t), I(λ2, t))) of a zero crossing of the difference signal (Δ(I(λ1,t), I(λ2,t))) or the time (t Δ0 (I(λ1,t), I(λ2, t))) of the identity signal of a comparator, wherein in the latter case an identical signal level is determined by an identity signal of a comparator, - comparing the time (t Δ0 (I(λ1,t), I(λ2, t))) determined by the zero crossing or by the identity signal with a target value.
An image processing apparatus comprising at least one processor configured to: receive an encoded bitstream including Sample Adaptive Offset parameters as: a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset; b) offset absolute values for BO, when BO is set as the SAO type, or offset absolute values for EO, when EO is set as the SAO type; c) offset sign and BO band position, indicating a displacement of the band offset, in the event BO is set as the SAO type; and d) EO class which represents one of four classes indicating direction when EO is set as the SAO type; wherein the encoded bitstream comprises a sequence of bins representing SAO parameters which is ordered as: (i) a first bin of the SAO type which is coded using context mode, before (ii) the remaining bins of the SAO parameters, including a second bin of the SAO type, which remaining bins are coded using by-pass mode; wherein the at least one processor is configured to decode the SAO type which is binarized using truncated unary binarization; and wherein the at least one processor is configured to decode the EO class which is binarized using a fixed length code, when EO is set as the SAO type. receive an encoded bitstream including Sample Adaptive Offset parameters as: a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset; b) offset absolute values for BO, when BO is set as the SAO type, or offset absolute values for EO, when EO is set as the SAO type; c) offset sign and BO band position, indicating a displacement of the band offset, in the event BO is set as the SAO type; and d) EO class which represents one of four classes indicating direction when EO is set as the SAO type; a) SAO type, comprising one of a Not Applied, Band Offset and Edge Offset; b) offset absolute values for BO, when BO is set as the SAO type, or offset absolute values for EO, when EO is set as the SAO type; c) offset sign and BO band position, indicating a displacement of the band offset, in the event BO is set as the SAO type; and d) EO class which represents one of four classes indicating direction when EO is set as the SAO type; wherein the encoded bitstream comprises a sequence of bins representing SAO parameters which is ordered as: (i) a first bin of the SAO type which is coded using context mode, before (ii) the remaining bins of the SAO parameters, including a second bin of the SAO type, which remaining bins are coded using by-pass mode; wherein the at least one processor is configured to decode the SAO type which is binarized using truncated unary binarization; and wherein the at least one processor is configured to decode the EO class which is binarized using a fixed length code, when EO is set as the SAO type.
An LNG fuel tank system for at least one gas engine used for ship propulsion, comprising at least one LNG fuel tank and a gas vessel, the LNG fuel tank to be bunkered from an onshore LNG pressure tank filling facility by means of an LNG filling line, characterized in that the LNG fuel tank is a ship low pressure controlled atmospheric pressure LNG tank, and the gas vessel is a single shell non-insulated pressure vessel arranged to accumulate flashed and boil-off gas during LNG bunkering and pressure relieving the LNG fuel tank, respectively, and that the gas engines are fuelled from either the gas vessel or the LNG fuel tank, dependent on a predefined gas vessel pressure.