mhurhangee/ep-ind-claims huggingface dataset:
A medicine injection device equipped with a formulation syringe and for use for injection of the formulation into a living body, the medicine injection device comprising: a formulation replacement detecting section which is adapted to detect replacement of the formulation syringe; characterised in that the device also comprises an injection needle detecting section which is adapted to detect an attachment of an injection needle for the injection of the formulation; a use time counting section which is adapted to start a timer when the injection needle detecting section detects the attachment of the injection needle to the formulation syringe, and the formulation syringe is replaced during a time from the precedent attachment of the injection needle to the current attachment of the injection needle, and is adapted to count the lapsed time using the timer; and a notification section (27, 28, 29) which is adapted to notify information about the counted elapsed time. a formulation replacement detecting section which is adapted to detect replacement of the formulation syringe; characterised in that the device also comprises an injection needle detecting section which is adapted to detect an attachment of an injection needle for the injection of the formulation; a use time counting section which is adapted to start a timer when the injection needle detecting section detects the attachment of the injection needle to the formulation syringe, and the formulation syringe is replaced during a time from the precedent attachment of the injection needle to the current attachment of the injection needle, and is adapted to count the lapsed time using the timer; and a notification section (27, 28, 29) which is adapted to notify information about the counted elapsed time.
Lighting and/or signaling device, especially for an automotive vehicle, comprising at least one optical module (12A, 12B, 12C) for emission of a light beam (VA, VB, VC) in the forward direction along a horizontal axis of emission, which is mounted on a support (16A, 16B, 16C) arranged on a frame extending in a transverse plane which is generally transversal to the axis of emission, the support (16A, 16B, 16C) being mounted in adjustable manner on the frame by means of an aiming mechanism to enable the adjusting of the axis of emission of the optical module, the aiming mechanism comprising at least two parallel threaded rods (22A, 22B, 22C - 24A, 24B, 24C) carried by the support, each of which extends longitudinally backward through an associated hole (122A, 122B, 122C - 124A, 124B, 124C) in the frame and carries a spherical nut (28A, 22B, 28C) comprising an active clamping face (30A, 30B, 30C) of truncated spherical profile which cooperates with a complementary bearing surface formed opposite said active clamping face in the rear face of the frame, said at least two threaded rods comprising: - one reference threaded rod (22A, 22B, 22C) carrying a spherical reference nut whose active face cooperates with a complementary spherical reference bearing surface (132A, 132B, 132C) of truncated spherical profile; characterized in that said at least two threaded rods comprise at least one adjustment threaded rod (24A, 24B, 24C) which carries a spherical adjustment nut whose active face cooperates with a complementary cylindrical adjustment bearing surface (134A, 134B, 134C) of truncated cylindrical profile. - one reference threaded rod (22A, 22B, 22C) carrying a spherical reference nut whose active face cooperates with a complementary spherical reference bearing surface (132A, 132B, 132C) of truncated spherical profile; characterized in that said at least two threaded rods comprise at least one adjustment threaded rod (24A, 24B, 24C) which carries a spherical adjustment nut whose active face cooperates with a complementary cylindrical adjustment bearing surface (134A, 134B, 134C) of truncated cylindrical profile.
A gravity gradiometer for measuring components of a gravity gradient tensor, comprising: an external platform for mounting a Dewar for relative rotation about three orthogonal axes; a sensor arranged in the Dewar for cryogenic operation for measuring the components of the gravity gradient tensor, the sensor comprising first and second bars (41, 42); characterised in that the gravity gradiometer comprises: an internal mounting for mounting the sensor for relative rotation about said three orthogonal axes in the Dewar, each bar (41, 42) of the sensor arranged on a respective end of, and external to, the internal mounting and orthogonal to one another; a first feedback controller (50, 52, 90) for monitoring a disturbance of the external platform and producing a force to counteract movement of the external platform to stabilise the external platform; and an internal feedback controller (50, 52, 90) for monitoring a disturbance of the internal mounting caused by any movement of the external platform after stabilisation of the external platform to counteract movement of the internal mounting and stabilize the sensor. an external platform for mounting a Dewar for relative rotation about three orthogonal axes; a sensor arranged in the Dewar for cryogenic operation for measuring the components of the gravity gradient tensor, the sensor comprising first and second bars (41, 42); characterised in that the gravity gradiometer comprises: an internal mounting for mounting the sensor for relative rotation about said three orthogonal axes in the Dewar, each bar (41, 42) of the sensor arranged on a respective end of, and external to, the internal mounting and orthogonal to one another; a first feedback controller (50, 52, 90) for monitoring a disturbance of the external platform and producing a force to counteract movement of the external platform to stabilise the external platform; and an internal feedback controller (50, 52, 90) for monitoring a disturbance of the internal mounting caused by any movement of the external platform after stabilisation of the external platform to counteract movement of the internal mounting and stabilize the sensor. an internal mounting for mounting the sensor for relative rotation about said three orthogonal axes in the Dewar, each bar (41, 42) of the sensor arranged on a respective end of, and external to, the internal mounting and orthogonal to one another; a first feedback controller (50, 52, 90) for monitoring a disturbance of the external platform and producing a force to counteract movement of the external platform to stabilise the external platform; and an internal feedback controller (50, 52, 90) for monitoring a disturbance of the internal mounting caused by any movement of the external platform after stabilisation of the external platform to counteract movement of the internal mounting and stabilize the sensor.
Process for providing fluorescence to a dental ceramic body by treating at least a portion of the outer surface of the dental ceramic body or a precursor thereof with a bismuth containing substance, characterized by the steps of a) placing the dental ceramic body or the precursor thereof into a closeable container; b) generating a bismuth containing atmosphere in the container and c) exposing at least a portion of the outer surface of the dental ceramic body or of the precursor to the bismuth containing atmosphere at a temperature above 1000°C. a) placing the dental ceramic body or the precursor thereof into a closeable container; b) generating a bismuth containing atmosphere in the container and c) exposing at least a portion of the outer surface of the dental ceramic body or of the precursor to the bismuth containing atmosphere at a temperature above 1000°C.
Method for training a previously trained neural network N k -1 to perform an additional segmentation task T k in addition to i previously trained segmentation tasks T i on said previously trained neural network N k -1 wherein i = 1,..., k - 1, and k ≥ 2, wherein said additional segmentation task T k is defined by a set of input images S k and their corresponding set of ground-truth segmentation masks G I k ( T k) in terms of the desired result, and wherein said previously trained neural network N k -1 is defined by parameters w̃ k- 1, a discrete number of convolution layers y, and a defined number of output layers z, characterized in that, said method comprises the steps of: - applying the previously trained neural network N k -1 to said set of input images S k to calculate the result masks G i k T j, j = 1,...,k - 1 for all previously trained tasks T 1,..., T k -1, - defining a new neural network N k by adding a new (1,1) convolutional layer in parallel to the existing output layers of the already trained neural network N k -1, - initialize randomly the newly added parameters w̃ k corresponding to said new (1,1) convolutional layer and subsequently train the new neural network N k on said additional segmentation task T k using the set of input images S k and said previously calculated result masks G i k T j, j = 1,...,k - 1 and the set of ground-truth segmentation masks G i k T k, wherein the loss function of the training process is defined as the general loss function: D combined = ∑ j = 1 k λ i D T j wherein λ 1,..., λ k represent the relative weights of the tasks in the total loss function, so that ∑ i λ i = 1, and wherein: D T j = S k − 1 ∑ i = 1 S k Λ I i k, G i k T j, j = 1,..., k and where Λ I i k G I i k: = − ∑ l = 1 n k r B, l k − 1 ∑ l = 1 n k d l I i k G i k G i k - applying the previously trained neural network N k -1 to said set of input images S k to calculate the result masks G i k T j, j = 1,...,k - 1 for all previously trained tasks T 1,..., T k -1, - defining a new neural network N k by adding a new (1,1) convolutional layer in parallel to the existing output layers of the already trained neural network N k -1, - initialize randomly the newly added parameters w̃ k corresponding to said new (1,1) convolutional layer and subsequently train the new neural network N k on said additional segmentation task T k using the set of input images S k and said previously calculated result masks G i k T j, j = 1,...,k - 1 and the set of ground-truth segmentation masks G i k T k, wherein the loss function of the training process is defined as the general loss function: D combined = ∑ j = 1 k λ i D T j
A method of determining rheology characteristics of a non-Newtonian fluid at a point down an oil or gas well, the method including the steps of: a) installing a test apparatus (1, 31, 41) having either (i) a bore having different diameter bore sections (3, R 1 - R 6) along its length or (ii) more than one bore (33a-f), each bore having a different diameter (R 1 - R 6); b) arranging for a known flow of the fluid to pass through the or each bore (33a-f); c) for each different diameter bore or bore section, sensing the pressure difference (ΔP) between two points (P 1, P 2) along the bore or bore section; and d) calculating from the bore or bore section diameter, flow rates, sensed pressure differences (ΔP) and distance between pressure sensing points (L, L 1 -L 6) a viscosity value for each diameter bore or bore section; wherein the test apparatus (1, 31, 41) comprises a housing (2, 32, 42), and step a) comprises installing the test apparatus (1, 31, 41) comprising the housing (2, 32, 42) in a drillstring; steps b) and c) are performed with the test apparatus (1, 31, 41) installed in the drillstring; and wherein the flow through the test apparatus is only a portion Q tube of the total flow of the fluid in the well Q FDP. a) installing a test apparatus (1, 31, 41) having either (i) a bore having different diameter bore sections (3, R 1 - R 6) along its length or (ii) more than one bore (33a-f), each bore having a different diameter (R 1 - R 6); b) arranging for a known flow of the fluid to pass through the or each bore (33a-f); c) for each different diameter bore or bore section, sensing the pressure difference (ΔP) between two points (P 1, P 2) along the bore or bore section; and d) calculating from the bore or bore section diameter, flow rates, sensed pressure differences (ΔP) and distance between pressure sensing points (L, L 1 -L 6) a viscosity value for each diameter bore or bore section; wherein the test apparatus (1, 31, 41) comprises a housing (2, 32, 42), and step a) comprises installing the test apparatus (1, 31, 41) comprising the housing (2, 32, 42) in a drillstring; steps b) and c) are performed with the test apparatus (1, 31, 41) installed in the drillstring; and wherein the flow through the test apparatus is only a portion Q tube of the total flow of the fluid in the well Q FDP.
Barefoot shoe with a bottom and an upper and with fasteners for fastening the barefoot shoe to the foot of a person wearing the barefoot shoe, characterized in that the bottom either a) is composed entirely of ring structures, and the fasteners are provided at least partially in the areas of the upper located in the area of the arch of the foot when the shoe is worn, or b) the bottom comprises areas composed in part of formed at least partially open ring structures. a) is composed entirely of ring structures, and the fasteners are provided at least partially in the areas of the upper located in the area of the arch of the foot when the shoe is worn, or b) the bottom comprises areas composed in part of formed at least partially open ring structures.
A delivery system for delivering and implanting an implantable heart valve at a desired anatomical feature, the delivery system comprising: a delivery handle; a delivery catheter having a proximal end and a distal end and an inner lumen between the proximal and distal ends; a first inflatable balloon disposed at the distal end of the delivery catheter, the inflatable balloon having a cavity that is in fluid communication with the inner lumen of the delivery catheter; an implantable heart valve disposed around the delivery catheter between the inflatable balloon and the proximal end of the delivery catheter; and an energy source movably disposed within the inner lumen of the delivery catheter. a delivery handle; a delivery catheter having a proximal end and a distal end and an inner lumen between the proximal and distal ends; a first inflatable balloon disposed at the distal end of the delivery catheter, the inflatable balloon having a cavity that is in fluid communication with the inner lumen of the delivery catheter; an implantable heart valve disposed around the delivery catheter between the inflatable balloon and the proximal end of the delivery catheter; and an energy source movably disposed within the inner lumen of the delivery catheter.
A method of filtering a raw setpoint (N1_CMD_OP) for a corrector network in a system for regulating an engine, said method comprising: - a step of detecting a filtering condition for filtering the raw setpoint; and - a step (E30, E40) of supplying a filtered setpoint (N1_CMD_LIM) of an engine speed (N1_MES) to the corrector network instead of the raw setpoint when the filtering condition is detected, wherein the filtered setpoint is adopted in: a stage (PSTAB) in which the filtered setpoint is limited to a protection threshold value (SEUIL_PROT) while the engine speed has not stabilized around the set filtered setpoint; and a stage in which the filtered setpoint is brought progressively to the raw setpoint according to a ramp once the engine speed has stabilized around the set filtered setpoint for a stabilization duration (DSTAB). - a step of detecting a filtering condition for filtering the raw setpoint; and - a step (E30, E40) of supplying a filtered setpoint (N1_CMD_LIM) of an engine speed (N1_MES) to the corrector network instead of the raw setpoint when the filtering condition is detected, wherein the filtered setpoint is adopted in: a stage (PSTAB) in which the filtered setpoint is limited to a protection threshold value (SEUIL_PROT) while the engine speed has not stabilized around the set filtered setpoint; and a stage in which the filtered setpoint is brought progressively to the raw setpoint according to a ramp once the engine speed has stabilized around the set filtered setpoint for a stabilization duration (DSTAB). a stage (PSTAB) in which the filtered setpoint is limited to a protection threshold value (SEUIL_PROT) while the engine speed has not stabilized around the set filtered setpoint; and a stage in which the filtered setpoint is brought progressively to the raw setpoint according to a ramp once the engine speed has stabilized around the set filtered setpoint for a stabilization duration (DSTAB).
A process to infect a crustacean with an infectious agent comprising: - collecting said crustacean, - collecting said infectious agent, - removing urine via the external pore of the antennal gland of said crustacean, and - inoculating an amount of said infectious agent into the external pore of the antennal gland of said crustacean. - collecting said crustacean, - collecting said infectious agent, - removing urine via the external pore of the antennal gland of said crustacean, and - inoculating an amount of said infectious agent into the external pore of the antennal gland of said crustacean.
A flexible base material, comprising: a flexible resin plate-shaped part and an anti-deformation structure formed on part or all of a surface of the plate-shaped part, wherein the anti-deformation structure includes protrusions and depressions on part or all of the surface of the plate-shaped part, and the protrusions and depressions are shaped such that adjacent protrusions come into contact with each other when the plate-shaped part is bent within a range of elastic deformation and restrict further deformation characterized in that the protrusions have a two dimensional planar shape and three dimensional shape selected from the group consisting of: square planar shape and pyramidal trapezoid, wherein the protrusions are disposed in the matrix form; equilateral hexagonal planar shape and hexagonal pyramidal trapezoid, wherein the protrusions are disposed in the honeycomb structure; circular planar and semi-sphere or semi-spheroid shape, wherein the protrusions are arranged at positions of the lattice points of a triangular lattice; and square planar shape and pyramidal, wherein the protrusions are arranged in the matrix form. a flexible resin plate-shaped part and an anti-deformation structure formed on part or all of a surface of the plate-shaped part, wherein the anti-deformation structure includes protrusions and depressions on part or all of the surface of the plate-shaped part, and the protrusions and depressions are shaped such that adjacent protrusions come into contact with each other when the plate-shaped part is bent within a range of elastic deformation and restrict further deformation characterized in that the protrusions have a two dimensional planar shape and three dimensional shape selected from the group consisting of: square planar shape and pyramidal trapezoid, wherein the protrusions are disposed in the matrix form; equilateral hexagonal planar shape and hexagonal pyramidal trapezoid, wherein the protrusions are disposed in the honeycomb structure; circular planar and semi-sphere or semi-spheroid shape, wherein the protrusions are arranged at positions of the lattice points of a triangular lattice; and square planar shape and pyramidal, wherein the protrusions are arranged in the matrix form.
A device for shaping containers by folding cardboard sheets, comprising at least the following: - a folding station for folding cardboard sheets, said folding station being provided with at least one die; - a handling station for handling said sheets from a storage area to said folding station, said handling station comprising a frame and at least one gripping head mounted so as to be able to move relative to said frame between said storage area and the die of said folding station; said gripping head comprising a grasping means for grasping and holding said sheet; said gripping head comprising at least one punch with a complementary shape for interacting with the inside of said die, said punch comprising a bearing surface for bearing against the bottom of said grasped sheet; characterized in that said grasping means is mounted so as to be able to move relative to said punch and free to move in at least one plane parallel to said bearing surface of said punch. - a folding station for folding cardboard sheets, said folding station being provided with at least one die; - a handling station for handling said sheets from a storage area to said folding station, said handling station comprising a frame and at least one gripping head mounted so as to be able to move relative to said frame between said storage area and the die of said folding station; said gripping head comprising a grasping means for grasping and holding said sheet; said gripping head comprising at least one punch with a complementary shape for interacting with the inside of said die, said punch comprising a bearing surface for bearing against the bottom of said grasped sheet; characterized in that said grasping means is mounted so as to be able to move relative to said punch and free to move in at least one plane parallel to said bearing surface of said punch. said handling station comprising a frame and at least one gripping head mounted so as to be able to move relative to said frame between said storage area and the die of said folding station; said gripping head comprising a grasping means for grasping and holding said sheet; said gripping head comprising at least one punch with a complementary shape for interacting with the inside of said die, said punch comprising a bearing surface for bearing against the bottom of said grasped sheet; characterized in that said grasping means is mounted so as to be able to move relative to said punch and free to move in at least one plane parallel to said bearing surface of said punch.
A method of controlling displaying in an electronic device (101, 201), the method comprising: inputting by a user of said electronic device (101, 201) at least one keyword corresponding to an object that said user does not desire to view in a webpage; transmitting (512, 610) information comprising the at least one keyword to a server; receiving (522, 614), from the server, a recognition model generated based on the transmitted at least one keyword; storing or installing the received recognition model; receiving (1014, 1214) the webpage including at least one object; identifying (620, 1014, 1214) whether a first object corresponding to the at least one keyword exists in the received webpage by using the recognition model; based on the first object existing in the webpage, replacing (622, 1216) the first object with a second object; and displaying (526, 624, 1124, 1218) the webpage including the second object. inputting by a user of said electronic device (101, 201) at least one keyword corresponding to an object that said user does not desire to view in a webpage; transmitting (512, 610) information comprising the at least one keyword to a server; receiving (522, 614), from the server, a recognition model generated based on the transmitted at least one keyword; storing or installing the received recognition model; receiving (1014, 1214) the webpage including at least one object; identifying (620, 1014, 1214) whether a first object corresponding to the at least one keyword exists in the received webpage by using the recognition model; based on the first object existing in the webpage, replacing (622, 1216) the first object with a second object; and displaying (526, 624, 1124, 1218) the webpage including the second object.