mhurhangee/ep-ind-claims huggingface dataset:
Offshore foundation for an offshore construction comprising: - a bearing structure extending along a direction of elevation between a lower portion (22; 122; 222) and an upper portion (23; 123) designed to support the offshore construction, - a support structure (3; 103) having a lower portion (32; 132) designed to be supported on or secured to a sea bed and an opposite upper portion (33; 133), characterised in that one of the lower portion (22; 122; 222) of the bearing structure and the upper portion of the support structure comprises at least one cavity (35; 135; 235) having an internal wall (36; 136) designed to fit with a clearance in the other one of said lower portion of the bearing structure and upper portion of the support structure, and in that the offshore foundation further comprises at least one bag disposed between the internal wall (36; 136) of the cavity (35; 135; 235) and the other one of said lower portion of the bearing structure and said upper portion of the support structure and designed to be filled with a dense fluid so as to take up the moments of force applied to the bearing structure relative to the horizontal, said at least one bag comprising a flexible casing having a flexible base and flexible peripheral walls. - a bearing structure extending along a direction of elevation between a lower portion (22; 122; 222) and an upper portion (23; 123) designed to support the offshore construction, - a support structure (3; 103) having a lower portion (32; 132) designed to be supported on or secured to a sea bed and an opposite upper portion (33; 133), characterised in that one of the lower portion (22; 122; 222) of the bearing structure and the upper portion of the support structure comprises at least one cavity (35; 135; 235) having an internal wall (36; 136) designed to fit with a clearance in the other one of said lower portion of the bearing structure and upper portion of the support structure,
Lighting device for a motor vehicle, comprising - at least one light source with a light emitting surface, - a light coupler having an entry surface and an exit surface, the entry surface having a greater extent than the exit surface, wherein the light coupler comprises at least one light-guiding material such as plastic or glass, and - a light guide with an entry surface, wherein the lighting device is configured so that during operation of the lighting device light emanating from the light emitting surface of the at least one light source enters the entry surface of the light coupler, is guided within the light coupler from the entry surface to the exit surface, emerges from the exit surface of the light coupler and enters the entry surface of the light guide, characterized in that the light guiding within the light coupler is based on the Anderson Localization, preferably the Transversal Anderson Localization. - at least one light source with a light emitting surface, - a light coupler having an entry surface and an exit surface, the entry surface having a greater extent than the exit surface, wherein the light coupler comprises at least one light-guiding material such as plastic or glass, and - a light guide with an entry surface, wherein the lighting device is configured so that during operation of the lighting device light emanating from the light emitting surface of the at least one light source enters the entry surface of the light coupler, is guided within the light coupler from the entry surface to the exit surface, emerges from the exit surface of the light coupler and enters the entry surface of the light guide,
Transduction detection device, comprising a substrate, at least one movable mass relative to the substrate and a suspended stress gauge provided with a piezoresistive element which comprises a first anchoring relative to an anchoring portion and a second anchoring, different from the first anchoring, relative to the movable mass, characterised in that it comprises at least one thermal dissipator element thermally conductively connected, on the one hand to a connection portion of the piezoresistive element located outside of the anchorings (31, 32), and on the other hand, to a thermal discharge part of the device, other than the piezoresistive element, and in that said thermal dissipator element comprises an arm extending in a longitudinal direction and having, in a direction perpendicular to its longitudinal dimension and to the detection direction, a dimension by height greater than a dimension by height of the piezoresistive element, the thermal dissipator element having, at the connection portion, a main direction oblique relative to a long dimension of the piezoresistive element, characterised in that the ratio between the dimension by height of the thermal dissipator element and a dimension by height of the piezoresistive element being greater than 2, preferably greater than 5.
A suturing device, comprising: at least one suturing needle (38, 40); a drive mechanism operatively coupled to the suturing needle and configured to advance the suturing needle from a retracted position to an extended position during engagement, and retract the suturing needle from the extended position to the retracted position during disengagement; and an impulse mechanism operatively coupled to the drive mechanism and configured to accumulate energy during engagement of the suturing needle, and instantaneously release the accumulated energy through the drive mechanism during deployment of a suture. at least one suturing needle (38, 40); a drive mechanism operatively coupled to the suturing needle and configured to advance the suturing needle from a retracted position to an extended position during engagement, and retract the suturing needle from the extended position to the retracted position during disengagement; and an impulse mechanism operatively coupled to the drive mechanism and configured to accumulate energy during engagement of the suturing needle, and instantaneously release the accumulated energy through the drive mechanism during deployment of a suture.
Reflector for reflecting electromagnetic waves from a rotating electromagnetic wave source, comprising a reflective screen being shaped as a hollow truncated cone having a top at the truncated end and a base, where the radius of the top is smaller than the radius of the base, where the hollow truncated cone comprises a plurality of trapezoid shaped segments and a reflective material is arranged inside the hollow cone on the trapezoid shaped segments, and where all or some of the trapezoid shaped segments have a different individual adapted slant angle inside the cone or all or some of the trapezoid segments have different individual adapted width, to optimize the distribution of the electromagnetic waves on the target.
A well system for forming a window (42,134) in a casing string positioned in a wellbore, the system comprising: first and second steel casing joints (412,442,462,464,482,484,502,504,522,524) interconnectable within the casing string; characterized by an aluminum exit joint (36,108,440,460,500,540) positioned between the first and second steel casing joints (412,442,462,464,482,484,502,504,522,524), the aluminum exit joint (36,108,440,460,500,540) having a first interconnection with the first steel casing joint and a second interconnection with the second steel casing joint, the aluminum exit joint (36,108,440,460,500,540) operable to have the window (42, 134) formed therethrough; and a sleeve (308, 410, 510) positioned within the aluminum exit joint (36,108,440,460,500,540) and extending into at least a portion of the first steel casing joint and at least a portion of the second steel casing joint to provide galvanic isolation between the aluminum exit joint (36,108,440,460,500,540) and the first and second steel casing joints. first and second steel casing joints (412,442,462,464,482,484,502,504,522,524) interconnectable within the casing string; characterized by an aluminum exit joint (36,108,440,460,500,540) positioned between the first and second steel casing joints (412,442,462,464,482,484,502,504,522,524), the aluminum exit joint (36,108,440,460,500,540) having a first interconnection with the first steel casing joint and a second interconnection with the second steel casing joint, the aluminum exit joint (36,108,440,460,500,540) operable to have the window (42, 134) formed therethrough; and a sleeve (308, 410, 510) positioned within the aluminum exit joint (36,108,440,460,500,540) and extending into at least a portion of the first steel casing joint and at least a portion of the second steel casing joint to provide galvanic isolation between the aluminum exit joint (36,108,440,460,500,540) and the first and second steel casing joints.
A work vehicle configured to perform an operation while traveling autonomously, comprising: an operation unit configured to perform the operation, the operation unit being mounted in a vehicle body, a load calculation unit configured to calculate a load of the operation, wherein the operation unit includes a load reduction unit configured to perform an operation for reducing a load of the operation whose load is greater than a preset load, and an operation completion unit configured to perform an operation, which is the remainder of the operation, for which the load reduction unit has reduced the load; and the work vehicle further comprises a decision unit configured to decide whether to drive both the load reduction unit and the operation completion unit or to only drive the operation completion unit, based on a result of the calculation performed by the load calculation unit; and characterized in that: the load calculation unit is provided forward of the operation unit relative to the travelling direction in the vehicle body; and the load reduction unit is a mowing blade, and the operation completion unit is a mowing blade which is different from the load reduction unit. an operation unit configured to perform the operation, the operation unit being mounted in a vehicle body, a load calculation unit configured to calculate a load of the operation, wherein the operation unit includes a load reduction unit configured to perform an operation for reducing a load of the operation whose load is greater than a preset load, and an operation completion unit configured to perform an operation, which is the remainder of the operation, for which the load reduction unit has reduced the load; and the work vehicle further comprises a decision unit configured to decide whether to drive both the load reduction unit and the operation completion unit or to only drive the operation completion unit, based on a result of the calculation performed by the load calculation unit; and characterized in that: the load calculation unit is provided forward of the operation unit relative to the travelling direction in the vehicle body; and the load reduction unit is a mowing blade, and the operation completion unit is a mowing blade which is different from the load reduction unit. the load calculation unit is provided forward of the operation unit relative to the travelling direction in the vehicle body; and the load reduction unit is a mowing blade, and the operation completion unit is a mowing blade which is different from the load reduction unit.
A dynamic damper device (1; 201; 301) wherein the damper comprises: a variable inertial mass device that variably controls inertial mass of a damper mass; an elastic body that connects a rotary shaft rotated by power transmitted thereto and an input member of the variable inertial mass device; and a variable damping force device (40;240;340) that variably controls a damping force to the elastic body, wherein the variable inertial mass device has a planetary gear mechanism including a plurality of rotating elements, which are differentially rotatable and a first rotating element of which serves as the input member, characterized in that the variable inertial mass device further has a motor, as a rotation control device, connected to a second rotating element of the planetary gear mechanism different from the first rotating element and that is configured to control rotation of the second rotating element so as to control the apparent inertial mass of the damper mass and alter the natural frequency of the dynamic damper device. a variable inertial mass device that variably controls inertial mass of a damper mass; an elastic body that connects a rotary shaft rotated by power transmitted thereto and an input member of the variable inertial mass device; and a variable damping force device (40;240;340) that variably controls a damping force to the elastic body, wherein the variable inertial mass device has a planetary gear mechanism including a plurality of rotating elements, which are differentially rotatable and a first rotating element of which serves as the input member, characterized in that the variable inertial mass device further has a motor, as a rotation control device, connected to a second rotating element of the planetary gear mechanism different from the first rotating element and that is configured to control rotation of the second rotating element so as to control the apparent inertial mass of the damper mass and alter the natural frequency of the dynamic damper device.
A method for a mobile imaging system, comprising: upon conditions being met for moving the mobile imaging system, collapsing a column coupling an imaging assembly to a drive system while concomitantly moving the drive system, wherein the conditions for moving the mobile imaging system include exertion of force on a handle coupled to the drive system or actuation of a switch by a user, during or after parking a tube arm. upon conditions being met for moving the mobile imaging system, collapsing a column coupling an imaging assembly to a drive system while concomitantly moving the drive system, wherein the conditions for moving the mobile imaging system include exertion of force on a handle coupled to the drive system or actuation of a switch by a user, during or after parking a tube arm.
Method for creating concreting sections (40, 42, 44) by way of a rail-guided self-climbing formwork system having two climbing rails which are integrated into a scaffold unit, comprising the following steps: a) fastening first, lower climbing shoes (24, 26, 34, 36) and first, upper climbing shoes (24, 26, 34, 36) to a hardened first concreting section (40, 42, 44)'; b) arranging the climbing rails in sliding fashion in the first, lower and in the first, upper climbing shoes (24, 26, 34, 36), wherein the climbing rails have a length which in each case substantially corresponds to the height of the first concreting section (40, 42, 44); c) producing a second concreting section (40, 42, 44); d) sliding the climbing rails upward along the first concreting section into the first, lower and the first, upper climbing shoes (24, 26, 34, 36); e) fastening in each case one lower climbing rail extension piece (20, 20', 22) to the lower free end of the climbing rails, wherein the climbing rail extension pieces (20, 20', 22) have a shorter length than the climbing rails; and f) sliding the climbing rails further upward until the lower climbing rail extension pieces (20, 20', 22) are arranged in the first, lower climbing shoes (24, 26, 34, 36). a) fastening first, lower climbing shoes (24, 26, 34, 36) and first, upper climbing shoes (24, 26, 34, 36) to a hardened first concreting section (40, 42, 44)'; b) arranging the climbing rails in sliding fashion in the first, lower and in the first, upper climbing shoes (24, 26, 34, 36), wherein the climbing rails have a length which in each case substantially corresponds to the height of the first concreting section (40, 42, 44); c) producing a second concreting section (40, 42, 44); d) sliding the climbing rails upward along the first concreting section into the first, lower and the first, upper climbing shoes (24, 26, 34, 36); e) fastening in each case one lower climbing rail extension piece (20, 20', 22) to the lower free end of the climbing rails, wherein the climbing rail extension pieces (20, 20', 22) have a shorter length than the climbing rails; and f) sliding the climbing rails further upward until the lower climbing rail extension pieces (20, 20', 22) are arranged in the first, lower climbing shoes (24, 26, 34, 36).
A method for a User Equipment, in the following also referred to as UE, to consider sidelink discontinuous reception, in the following also referred to as DRX, for sidelink groupcast communication associated with a group, comprising: obtaining or being configured with a sidelink DRX configuration applied for the sidelink groupcast communication associated with the group, wherein the sidelink DRX configuration comprises at least one of an on-duration timer length used for determining an on-duration at the beginning of each sidelink DRX cycle and/or a cycle length used for determining a length of each sidelink DRX cycle; deriving or determining a time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle based on at least an identifier associated with the group; and transmitting a sidelink control information associated with the group on a sidelink control channel in a period, wherein the period is determined based on the SL DRX configuration and the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle, characterized in that the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle is derived or determined based on a derived value of "(part of the identifier) modulo (the cycle length)" or a derived value of "(the identifier) modulo (the cycle length)". obtaining or being configured with a sidelink DRX configuration applied for the sidelink groupcast communication associated with the group, wherein the sidelink DRX configuration comprises at least one of an on-duration timer length used for determining an on-duration at the beginning of each sidelink DRX cycle and/or a cycle length used for determining a length of each sidelink DRX cycle; deriving or determining a time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle based on at least an identifier associated with the group; and transmitting a sidelink control information associated with the group on a sidelink control channel in a period, wherein the period is determined based on the SL DRX configuration and the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle, characterized in that the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle is derived or determined based on a derived value of "(part of the identifier) modulo (the cycle length)" or a derived value of "(the identifier) modulo (the cycle length)".
An assembly comprising an end-fitting, an unbonded flexible pipe terminated in said end-fitting and an electric heating system, wherein said unbonded flexible pipe comprises a first and a second armour layer (2, 4, 6, 7) co-axially arranged, the first armour layer is mechanically anchored to the end-fitting and said electric heating system comprises electrical connections for connecting the first armour layer to a power-source, the second armour layer is mechanically anchored to the end-fitting, the first and the second armour layers being electrically insulated from each other by at least one electrically insulating layer in the end-fitting, wherein the end-fitting comprises a local volume running continuously in a circular path surrounding the electrically insulating layer in the end-fitting and adjacent to the electrically insulating layer, and wherein the local volume comprises a functional fluid selected from an electrically insulating fluid, a moisture absorbing fluid and a transformer oil, and the local volume is adapted for injection of said functional fluid.
A nanochannel delivery device comprising: a planar body comprising an inlet surface and an outlet surface opposing the inlet surface; a plurality of inlet microchannels; and a plurality of outlet microchannels, wherein the plurality of inlet microchannels extend to the inlet surface and wherein the plurality of outlet microchannels extend to the outlet surface, the inlet surface and the outlet surface being parallel to a primary plane of the nanochannel delivery device, characterized in that the nanochannel delivery device further comprises a plurality of nanochannels, wherein each inlet microchannel is in direct fluid communication with an outlet microchannel via a single nanochannel. a planar body comprising an inlet surface and an outlet surface opposing the inlet surface; a plurality of inlet microchannels; and a plurality of outlet microchannels, wherein the plurality of inlet microchannels extend to the inlet surface and wherein the plurality of outlet microchannels extend to the outlet surface, the inlet surface and the outlet surface being parallel to a primary plane of the nanochannel delivery device, characterized in that the nanochannel delivery device further comprises a plurality of nanochannels, wherein each inlet microchannel is in direct fluid communication with an outlet microchannel via a single nanochannel.
Compensation device for high-voltage systems, which comprises shunt reactors and at least one earthing reactor, wherein the shunt reactors and the earthing reactor are accommodated in a common housing, characterized in that the electrical connection between the shunt reactors and the earthing reactor is designed to be interruptible.
A method performed by a speech processor for extracting stimulation parameters for simultaneously activating at least two electrodes (E 1 -E 12) in a multichannel electrode array having N channels, the method comprising÷ calculating pulse amplitudes of the electrodes (E 1 -E 12) in the multichannel array by taking into account parameters of spatial channel interaction reflecting geometric overlapping of electrical fields from each electrode, wherein calculating is based, at least in part, on place-independent impulse responses characterized by a first exponential decay constant α at a first side of the electrode and a second exponential decay constant β at a second side of the electrode, such that the first exponential decay constant α is the same for each electrode in the array, and the second exponential decay constant β is the same for each electrode in the array, characterized in that: calculating further includes applying electrode-specific weighting factors c n (n = 1,2,..., N) to account for place-dependent impulse responses. calculating further includes applying electrode-specific weighting factors c n (n = 1,2,..., N) to account for place-dependent impulse responses.
A composition exhibiting enhanced bioavailability comprising a tri-molecular complex of general formula I embedded in oleoresin matrix along with pharmaceutically or nutraceutically acceptable excipients: wherein, P is a natural compound wherein the natural compound is selected from curcuminoids, Gingerols, or natural compound containing component wherein the natural compound is curcuminoids or gingerol(s) present in respective oleoresin form; M n+ wherein n is 2 or 3 and M is a divalent or trivalent metal ion; and R is a phospholipid; wherein the composition comprises an organic acid or inorganic acid as a stabilizer; and wherein the composition exhibits sustained release profile for P. P is a natural compound wherein the natural compound is selected from curcuminoids, Gingerols, or natural compound containing component wherein the natural compound is curcuminoids or gingerol(s) present in respective oleoresin form; M n+ wherein n is 2 or 3 and M is a divalent or trivalent metal ion; and R is a phospholipid; wherein the composition comprises an organic acid or inorganic acid as a stabilizer; and wherein the composition exhibits sustained release profile for P.