mhurhangee/ep-ind-claims huggingface dataset:
A webbing take-up device, comprising: a spool to which a base end side in a length direction of a webbing is anchored, the spool taking up and storing the webbing by rotating in a take-up direction; a spring that biases the spool towards the take-up direction; a motor that rotates an output shaft about an axis thereof by being supplied with power; and a clutch that is provided between the spool and the output shaft, the clutch comprising: a clutch weight (170, 172) that is rotated by the output shaft and that deploys as a result of its own centrifugal force; and a connection-disconnection mechanism (128, 136, 140, 148) that receives force from the clutch weight deploying and connects so as to enable rotation of the output shaft to be transmitted to the spool; wherein the clutch transmits rotation of the output shaft to the spool and rotates the spool in the take-up direction, characterized in that the clutch comprises a load limiting portion that limits the force of the clutch weight deploying that is imparted to the connection-disconnection mechanism so as not to reach a specified value or greater, wherein the load limiting portion is an abutted portion to which the outwardly deployed clutch weight (170, 172) is abutted. a spool to which a base end side in a length direction of a webbing is anchored, the spool taking up and storing the webbing by rotating in a take-up direction; a spring that biases the spool towards the take-up direction; a motor that rotates an output shaft about an axis thereof by being supplied with power; and a clutch that is provided between the spool and the output shaft, the clutch comprising: a clutch weight (170, 172) that is rotated by the output shaft and that deploys as a result of its own centrifugal force; and a connection-disconnection mechanism (128, 136, 140, 148) that receives force from the clutch weight deploying and connects so as to enable rotation of the output shaft to be transmitted to the spool; a clutch weight (170, 172) that is rotated by the output shaft and that deploys as a result of its own centrifugal force; and a connection-disconnection mechanism (128, 136, 140, 148) that receives force from the clutch weight deploying and connects so as to enable rotation of the output shaft to be transmitted to the spool; wherein the clutch transmits rotation of the output shaft to the spool and rotates the spool in the take-up direction, characterized in that the clutch comprises a load limiting portion that limits the force of the clutch weight deploying that is imparted to the connection-disconnection mechanism so as not to reach a specified value or greater, wherein the load limiting portion is an abutted portion to which the outwardly deployed clutch weight (170, 172) is abutted.
An illumination system, comprising: a tapped linear driver circuit including a plurality of tap points (19A - 19C), the driver circuit being configured to produce a cyclical waveform and switch the tap points on and off in sequence during each cycle of the waveform; an LED strip (29, 410) comprising a plurality of series-connected LEDs arranged in series-connected groups (16A, 16B, 16C, 16D), each LED group (16A, 16B, 16C, 16D) being connected to a different respective one of the plurality of tap points (19A - 19C); a light guide (310, 420) having a light emitting surface, the light emitting surface having a plurality of portions (312 - 318; 422 - 428), characterized in that each light guide portion (312 - 318; 422 - 428) having a different light extraction pattern (322 - 328; 432 - 438) formed thereon, each light extraction pattern (322 - 328; 432 - 438) including a different plurality of light extraction features, and each light extraction pattern having a different light extraction feature density; and each LED group (16A, 16B, 16C, 16D) of the LED strip (29, 410) is coupled to a different respective one of the plurality of portions (312 - 318; 422 - 428) of the light guide (310, 420), whereby a length of a period for which the respective LED group (16A, 16B, 16C, 16D) coupled to the respective portion is powered on during each cycle of the waveform is inversely proportional to the light extraction feature density of the light extraction pattern (322 - 328; 432 - 438) in the respective portion (312 - 318; 422 - 428) of the light guide. a tapped linear driver circuit including a plurality of tap points (19A - 19C), the driver circuit being configured to produce a cyclical waveform and switch the tap points on and off in sequence during each cycle of the waveform; an LED strip (29, 410) comprising a plurality of series-connected LEDs arranged in series-connected groups (16A, 16B, 16C, 16D), each LED group (16A, 16B, 16C, 16D) being connected to a different respective one of the plurality of tap points (19A - 19C); a light guide (310, 420) having a light emitting surface, the light emitting surface having a plurality of portions (312 - 318; 422 - 428), characterized in that each light guide portion (312 - 318; 422 - 428) having a different light extraction pattern (322 - 328; 432 - 438) formed thereon, each light extraction pattern (322 - 328; 432 - 438) including a different plurality of light extraction features, and each light extraction pattern having a different light extraction feature density; and each LED group (16A, 16B, 16C, 16D) of the LED strip (29, 410) is coupled to a different respective one of the plurality of portions (312 - 318; 422 - 428) of the light guide (310, 420), whereby a length of a period for which the respective LED group (16A, 16B, 16C, 16D) coupled to the respective portion is powered on during each cycle of the waveform is inversely proportional to the light extraction feature density of the light extraction pattern (322 - 328; 432 - 438) in the respective portion (312 - 318; 422 - 428) of the light guide.
Flexible pivot comprising a first stage comprising a first interface structure (38; 48; 138) and a second stage comprising a second interface structure (39; 49; 59) in axial alignment with the first interface structure, the flexible pivot being arranged to be fixed to a base by one of the interface structures and to carry a load attached to the other interface structure, the flexible pivot comprising a first cylinder (21; 121) forming part of the first stage, a second cylinder in axial alignment with the first cylinder and forming part of the second stage, and a set of flexible connecting members (25, 25a, 25b, 27, 27a, 27b, 29, 29a, 29b, 31, 31a, 31b) for connecting the first and the second stages, each flexible connecting member comprising a pair of legs (33, 35) and a cross member joining the legs, each leg extending in a direction transverse to the axis of the cylinders, and the legs being attached to the first (21; 121) and the second cylinders respectively, wherein the first cylinder (21; 121) and the first interface structure (38; 138) are concentric, the first stage comprising a set of flexible spokes (41; 141a, 141b) attached to the first cylinder (21; 121) by one end and to the first interface structure (38; 138) by the other end, each spoke extending in a direction transverse to the axis of the pivot, and wherein the second stage comprises flexible connection means (43, 57, 157) arranged to connect the second cylinder and the second interface structure (39; 49, 59), characterised in that the spokes are intercalated between legs of the flexible connecting members (25, 25a, 25b, 27, 27a, 27b, 29, 29a, 29b, 31, 31a, 31b) that are attached to the first cylinder.
Stoma coat, comprising - a flexible cone-shaped sleeve of a first biocompatible material having a narrow end and a wider end opposite of said narrow end, and having an external flange located at said narrow end and - a rigid tube (2, 3) having an outside diameter, a distal end and a proximal end opposite of said distal end, and having a smooth inner surface, wherein said proximal end is connected with said narrow end of said cone-shaped flexible sleeve, characterized in that said flexible cone-shaped sleeve further has an internal flange located at said narrow end, and in that said rigid tube (2, 3) is of a second biocompatible material and further has a threaded outer surface. - a flexible cone-shaped sleeve of a first biocompatible material having a narrow end and a wider end opposite of said narrow end, and having an external flange located at said narrow end and - a rigid tube (2, 3) having an outside diameter, a distal end and a proximal end opposite of said distal end, and having a smooth inner surface, wherein said proximal end is connected with said narrow end of said cone-shaped flexible sleeve,
Compressed air circuit for a rail vehicle, comprising a main pneumatic network intended to be carried on the railway vehicle, and comprising at least one safety valve, the compressed air circuit comprising a three-way check valve, of which a first way is connected to the safety valve, a second way is connected to the main pneumatic network, and a third way comprises a connection socket for connection to a secondary pneumatic network, the valve being shaped so that its first path is connected to the third path when the connection socket is connected to the secondary pneumatic network, and so that its first path is connected to the second path when the connection socket is not connected, characterised in that the compressed air circuit comprises a pressure measurement socket arranged between the check valve and the safety valve. vehicle, comprising a main pneumatic network intended to be carried on the railway vehicle, and comprising at least one safety valve, the compressed air circuit comprising a three-way check valve, of which a first way is connected to the safety valve, a second way is connected to the main pneumatic network, and a third way comprises a connection socket for connection to a secondary pneumatic network, the valve being shaped so that its first path is connected to the third path when the connection socket is connected to the secondary pneumatic network, and so that its first path is connected to the second path when the connection socket is not connected, characterised in that the compressed air circuit comprises a pressure measurement socket arranged between the check valve and the safety valve.
A medical support arm device comprising: a brake provided in at least one joint of a plurality of joints (513a, 513b) that define a deployment configuration of a multi-joint arm, and configured to release a rotation shaft of the at least one joint when electricity is supplied to the multi-joint arm and lock the rotation shaft when electricity is not supplied to the multi-joint arm, wherein when electricity is not supplied to the multi-joint arm, the brake is configured to exert a brake force that supports a weight of the multi-joint arm to maintain the deployment configuration of the multi-joint arm, but also permits rotation of the rotation shaft by an external manually applied force equal to or larger than a predetermined value; characterized in that: the brake force is controllably adjusted to correspond with a change in torque on the at least one of the joints depending on the deployment configuration of the multi-joint arm. a brake provided in at least one joint of a plurality of joints (513a, 513b) that define a deployment configuration of a multi-joint arm, and configured to release a rotation shaft of the at least one joint when electricity is supplied to the multi-joint arm and lock the rotation shaft when electricity is not supplied to the multi-joint arm, wherein when electricity is not supplied to the multi-joint arm, the brake is configured to exert a brake force that supports a weight of the multi-joint arm to maintain the deployment configuration of the multi-joint arm, but also permits rotation of the rotation shaft by an external manually applied force equal to or larger than a predetermined value; characterized in that: the brake force is controllably adjusted to correspond with a change in torque on the at least one of the joints depending on the deployment configuration of the multi-joint arm.
A filter cartridge for a machine for preparing beverages, comprising a main body for housing filter material, the main body comprising an inlet for the introduction of liquid to be filtered, an outlet for the outflow of filtered liquid, and an auxiliary opening, located in an intermediate position along a path along which the liquid passes between the inlet and the outlet, and designed for the introduction of unfiltered liquid into the main body, the filter cartridge further comprising closure means for closing the auxiliary opening, characterised in that the closure means can be physically separated from the main body and/or comprises an intentionally breakable area in which it can be broken in order to open the auxiliary opening.
Method of filtering and separating flowing media by means of membranes, comprising a pressure-tight housing in which a plurality of membranes is disposed, at least one inlet for the flowing medium to be separated fed into the device and at least one outlet for the permeate fed out of the device as well as the discharged retentate, which membranes are provided in the form of membrane pads having an opening region providing an outlet for the permeate collecting in the membrane interior, characterised in that in the membrane stack, a respective part-quantity of the quantity of membranes of different separation areas are operated with a predefined, different vacuum in each case on the permeate side of the medium to be separated.
Method for manufacturing an electrically conductive composite material, said method comprising at least the following steps: - a step of obtaining said composite material which comprises a thermoplastic matrix and short carbon fibers and is free of carbon nanotubes, said composite material comprises a mass content of short carbon fibers of between 20 and 45% and said short carbon fibers having a diameter in the range of one to ten micrometers and a length of between 10 and 500 micrometers and being composed almost exclusively of carbon atoms, - a step of preheating a furnace until a predetermined target temperature is reached, - a step of inserting said composite material into said preheated furnace once the target temperature has been reached, and - a step of heating said composite material in said furnace at the predetermined target temperature which is kept constant for a predetermined duration comprised between 2 hours and 30 hours, said predetermined target temperature being comprised between 200°C and 300°C ± 10°C. - a step of obtaining said composite material which comprises a thermoplastic matrix and short carbon fibers and is free of carbon nanotubes, said composite material comprises a mass content of short carbon fibers of between 20 and 45% and said short carbon fibers having a diameter in the range of one to ten micrometers and a length of between 10 and 500 micrometers and being composed almost exclusively of carbon atoms, - a step of preheating a furnace until a predetermined target temperature is reached, - a step of inserting said composite material into said preheated furnace once the target temperature has been reached, and - a step of heating said composite material in said furnace at the predetermined target temperature which is kept constant for a predetermined duration comprised between 2 hours and 30 hours, said predetermined target temperature being comprised between 200°C and 300°C ± 10°C.
A pharmaceutical composition for use in the prevention or treatment of inflammatory bowel disease or ischemic colitis, the pharmaceutical composition comprising taurodeoxycholic acid or a pharmaceutically acceptable salt thereof as an active ingredient.
Method for coating a workpiece using a spraying device, wherein the coating of the workpiece is performed according to at least one coating parameter, and wherein at least the following steps are carried out during coating: - detecting a local heat distribution in a working area of a surface of the workpiece; and - adapting the at least one coating parameter as a function of the detected heat distribution, in which the detected heat distribution is compared with stored reference heat distributions, and wherein the at least one coating parameter is adapted as a function of a coating parameter data set which is assigned to a reference heat distribution, of the stored reference heat distributions, that most closely resembles the detected heat distribution, in which the stored reference heat distributions are divided into a plurality of groups, wherein each of the groups is assigned to a respective surface region of the workpiece, and wherein, when the detected heat distribution is compared with the stored reference heat distributions, the detected heat distribution is compared with that group of stored reference heat distributions which is assigned to that surface region of the workpiece containing the working area for which the detected heat distribution has been detected. - detecting a local heat distribution in a working area of a surface of the workpiece; and - adapting the at least one coating parameter as a function of the detected heat distribution, in which the detected heat distribution is compared with stored reference heat distributions, and wherein the at least one coating parameter is adapted as a function of a coating parameter data set which is assigned to a reference heat distribution, of the stored reference heat distributions, that most closely resembles the detected heat distribution, in which the stored reference heat distributions are divided into a plurality of groups, wherein each of the groups is assigned to a respective surface region of the workpiece, and wherein, when the detected heat distribution is compared with the stored reference heat distributions, the detected heat distribution is compared with that group of stored reference heat distributions which is assigned to that surface region of the workpiece containing the working area for which the detected heat distribution has been detected.
A vehicle control system mounted on a vehicle; the system being configured to; detect an object (8A, 8B) external to the vehicle, determine a speed distribution area (40A, 40B) which defines a distribution of an allowable upper limit (V lim) of a relative speed of the vehicle with respect to the object (8A, 8B) in a travelling direction of the vehicle, in a range from a lateral area to a rearward area and from the lateral area to a forward area of the object (8A, 8B) in the travelling direction of the vehicle, determine respective speed distribution area (40A, 40B) for respective objects (8A, 8B) when a plurality of objects (8A, 8B) are detected, and execute an avoidance control for restricting the relative speed of the vehicle for respective objects (8A, 8B) from exceeding the allowable upper limits (V lim) defined by the plurality of speed distribution areas (40A, 40B) for the plurality of objects (8A, 8B). detect an object (8A, 8B) external to the vehicle, determine a speed distribution area (40A, 40B) which defines a distribution of an allowable upper limit (V lim) of a relative speed of the vehicle with respect to the object (8A, 8B) in a travelling direction of the vehicle, in a range from a lateral area to a rearward area and from the lateral area to a forward area of the object (8A, 8B) in the travelling direction of the vehicle, determine respective speed distribution area (40A, 40B) for respective objects (8A, 8B) when a plurality of objects (8A, 8B) are detected, and execute an avoidance control for restricting the relative speed of the vehicle for respective objects (8A, 8B) from exceeding the allowable upper limits (V lim) defined by the plurality of speed distribution areas (40A, 40B) for the plurality of objects (8A, 8B).
A composition comprising - a first RNA molecule encoding a chimeric antigen receptor, wherein the CAR comprises a human CD19 binding domain, a transmembrane domain, and a CD3 zeta signaling domain, wherein the sequence encoding the CD19 binding domain is of human origin; and - a second RNA molecule encoding a bispecific antibody, wherein the bispecific antibody comprises a first antigen recognition domain that recognizes human CD19, and a second antigen recognition domain that recognizes CD3. - a first RNA molecule encoding a chimeric antigen receptor, wherein the CAR comprises a human CD19 binding domain, a transmembrane domain, and a CD3 zeta signaling domain, wherein the sequence encoding the CD19 binding domain is of human origin; and - a second RNA molecule encoding a bispecific antibody, wherein the bispecific antibody comprises a first antigen recognition domain that recognizes human CD19, and a second antigen recognition domain that recognizes CD3.
An electronic device comprising: a support that is coupled to a coupled subject and includes a support portion; a substrate supported by the support portion; a current sensor including a signal terminal, wherein the current sensor is connected to the substrate in a manner allowing for a signal to be sent to the substrate through the signal terminal; and a fastener fastening the current sensor to the support portion and the substrate, characterized in that the current sensor is suspended from the substrate, and the support portion is arranged between the substrate and the current sensor, the support portion includes a support boss projecting toward the substrate, the current sensor includes a coupling boss that is inserted into the support boss, and the fastener extends through the substrate and the support boss and is fastened to the coupling boss. a support that is coupled to a coupled subject and includes a support portion; a substrate supported by the support portion; a current sensor including a signal terminal, wherein the current sensor is connected to the substrate in a manner allowing for a signal to be sent to the substrate through the signal terminal; and a fastener fastening the current sensor to the support portion and the substrate, characterized in that the current sensor is suspended from the substrate, and the support portion is arranged between the substrate and the current sensor, the support portion includes a support boss projecting toward the substrate, the current sensor includes a coupling boss that is inserted into the support boss, and the fastener extends through the substrate and the support boss and is fastened to the coupling boss.