mhurhangee/patent-ind-claim-en huggingface dataset:
Fetal heart rate monitoring device for monitoring a heart rate of a fetus, the device comprising: a carrier suitable for being attached to a human body; at least one fetal electrocardiographic sensor mounted on the carrier and configured for providing an output signal; at least one reference sensor for providing a reference signal for filtering the output signal to enable identifying a fetal heartrate therefrom; wherein the device further comprises: an actuator arrangement comprising a plurality of actuators mounted on the carrier and distributed in an area around the fetal electrocardiographic sensor , wherein each actuator is configured for providing a haptic signal to the human body; and a controller communicatively connected to the at least one fetal electrocardiographic sensor for receiving the output signal, wherein the controller is configured for determining a signal strength from the received output signal, wherein the controller is arranged for controlling each of the plurality of actuators for providing a haptic feedback signal to the human body dependent on the received output signal, wherein the controller is configured for providing the haptic feedback signal dependent on the determined signal strength. a carrier suitable for being attached to a human body; at least one fetal electrocardiographic sensor mounted on the carrier and configured for providing an output signal; at least one reference sensor for providing a reference signal for filtering the output signal to enable identifying a fetal heartrate therefrom; wherein the device further comprises: an actuator arrangement comprising a plurality of actuators mounted on the carrier and distributed in an area around the fetal electrocardiographic sensor , wherein each actuator is configured for providing a haptic signal to the human body; and a controller communicatively connected to the at least one fetal electrocardiographic sensor for receiving the output signal, wherein the controller is configured for determining a signal strength from the received output signal, wherein the controller is arranged for controlling each of the plurality of actuators for providing a haptic feedback signal to the human body dependent on the received output signal, wherein the controller is configured for providing the haptic feedback signal dependent on the determined signal strength. an actuator arrangement comprising a plurality of actuators mounted on the carrier and distributed in an area around the fetal electrocardiographic sensor , wherein each actuator is configured for providing a haptic signal to the human body; and a controller communicatively connected to the at least one fetal electrocardiographic sensor for receiving the output signal, wherein the controller is configured for determining a signal strength from the received output signal, wherein the controller is arranged for controlling each of the plurality of actuators for providing a haptic feedback signal to the human body dependent on the received output signal, wherein the controller is configured for providing the haptic feedback signal dependent on the determined signal strength.
A dye scavenger for removal of dyes or colourants from a solution, comprising a biodegradable hydrogel wherein the hydrogel comprises two natural polymers chemically cross-linked by a cross-linker characterized by one of the polymers being sodium alginate.
A flame resistant fabric comprising a fiber blend comprising at least 40%, and no more than 60%, additive-containing fibers (AC fibers), containing an energy absorbing and/or reflecting additive, wherein the fabric has a weight of no more than 300 grams per square meter (9 ounces per square yard) and an arc rating of at least 33 joules/cm 2 (8 cal/cm 2 ).
A composition for nerve regeneration comprising: neural stem cells, and a neurotrophic factor, which is IL12p80 and/or a monomer of IL12p40. neural stem cells, and a neurotrophic factor, which is IL12p80 and/or a monomer of IL12p40.
Discharge chute for a mixing machine , having a protective grid which is arranged in the interior of the discharge chute, wherein the protective grid is formed by a plurality of grid bars which form a grid structure and/or cross one another, and wherein at least one subregion of the protective grid is formed and/or arranged in a positionally adjustable manner, characterized in that at least one grid bar of the protective grid is formed and/or arranged in a positionally adjustable manner, in that the at least one displaceable grid bar is supported and/or mounted with a first grid bar region on or in a first chute wall region of a chute wall of the discharge chute , and in that the at least one displaceable grid bar is positively guided with a second grid bar region , which is spaced apart from the first grid bar region , in a slotted cutout which defines the displacement direction and the displacement path and which is formed in a second chute wall region , which is spaced apart from the first chute wall region , of the chute wall of the discharge chute . having a protective grid which is arranged in the interior of the discharge chute, wherein the protective grid is formed by a plurality of grid bars which form a grid structure and/or cross one another, and wherein at least one subregion of the protective grid is formed and/or arranged in a positionally adjustable manner, characterized in that at least one grid bar of the protective grid is formed and/or arranged in a positionally adjustable manner, in that the at least one displaceable grid bar is supported and/or mounted with a first grid bar region on or in a first chute wall region of a chute wall of the discharge chute , and in that the at least one displaceable grid bar is positively guided with a second grid bar region , which is spaced apart from the first grid bar region , in a slotted cutout which defines the displacement direction and the displacement path and which is formed in a second chute wall region , which is spaced apart from the first chute wall region , of the chute wall of the discharge chute .
Device for testing at least one part of a drivetrain of a vehicle, having at least one rotatable drive drum which can be driven by means of a drive , wherein the drive drum has a frictional contact plate , wherein the frictional contact plate lies against a rotatably mounted tyred wheel , wherein the tyred wheel is connected to an output shaft , wherein the output shaft is connected to a rotationally fixedly mounted drive unit , wherein the drive drum with the frictional contact plate is designed to exchange torque with the tyred wheel , characterized in that the frictional contact plate is arranged between the drive drum and the tyred wheel , and in that the axis of rotation of the drive drum is arranged on the same axis as the axis of rotation of the tyred wheel .
A sustained release pharmaceutical dosage form comprising a therapeutically effective amount of ranolazine or pharmaceutically acceptable salt(s), polymorph(s), solvate(s), hydrate(s), enantiomer(s) thereof; a combination of at least two pH-dependent binders wherein one binder is sodium alginate and optionally one or more pharmaceutically acceptable excipients (s).
An electronic unit comprising: a first board and a second board which are stacked to each other; a first connector mounted on a surface of the first board which faces the second board ; and a second connector mounted on a surface of the second board which faces the first board , wherein: each of the first connector and the second connector has: a fitting portion to be fitted with a first counterpart connector or a second counterpart connector , characterized in that each of the first connector and the second connector has a lock portion configured to lock a fitting of the fitting portion ; in that the first connector is provided with the lock portion on the same side of the fitting portion as the first board ; and in that the second connector is provided with the lock portion on the opposite side of the fitting portion to the second board . a first board and a second board which are stacked to each other; a first connector mounted on a surface of the first board which faces the second board ; and a second connector mounted on a surface of the second board which faces the first board , wherein: each of the first connector and the second connector has: a fitting portion to be fitted with a first counterpart connector or a second counterpart connector , characterized in that each of the first connector and the second connector has a lock portion configured to lock a fitting of the fitting portion ; in that the first connector is provided with the lock portion on the same side of the fitting portion as the first board ; and in that the second connector is provided with the lock portion on the opposite side of the fitting portion to the second board . each of the first connector and the second connector has: a fitting portion to be fitted with a first counterpart connector or a second counterpart connector , characterized in that each of the first connector and the second connector has a lock portion configured to lock a fitting of the fitting portion ; in that the first connector is provided with the lock portion on the same side of the fitting portion as the first board ; and in that a fitting portion to be fitted with a first counterpart connector or a second counterpart connector , characterized in that each of the first connector and the second connector has a lock portion configured to lock a fitting of the fitting portion ; in that the first connector is provided with the lock portion on the same side of the fitting portion as the first board ; and in that the second connector is provided with the lock portion on the opposite side of the fitting portion to the second board .
A method for automatically guiding a vehicle , relative to a centerline extending along at least a first row of a plurality of navigable rows , each row comprising a predefined centerline , at least a second row of the plurality of navigable rows comprising a number of movable objects of known dimensions positioned at known locations (X, Y) along its centerline, the method characterized by : using a laser mounted on the vehicle to scan from the vehicle the movable objects positioned at the known locations (X,Y) along the at least the second of said rows and receive reflections from surfaces of the movable objects; from the received reflections, generating a set of data points , representative of the known locations of the movable objects relative to the vehicle; analyzing the data points to determine an estimate of the true location of the first row being travelled by the vehicle; determining a sensed position and heading of the vehicle relative to the centerline of the estimated true location of the first row; and generating offset (L, D) and heading (θ) errors for the vehicle based on differences between the sensed position and heading of the vehicle and the position and direction of the centerline of the estimated true location of the first row. using a laser mounted on the vehicle to scan from the vehicle the movable objects positioned at the known locations (X,Y) along the at least the second of said rows and receive reflections from surfaces of the movable objects; from the received reflections, generating a set of data points , representative of the known locations of the movable objects relative to the vehicle; analyzing the data points to determine an estimate of the true location of the first row being travelled by the vehicle; determining a sensed position and heading of the vehicle relative to the centerline of the estimated true location of the first row; and generating offset (L, D) and heading (θ) errors for the vehicle based on differences between the sensed position and heading of the vehicle and the position and direction of the centerline of the estimated true location of the first row.
A mattress comprising: a layer of coil pockets comprising first and second coil pockets; each of said first and second coil pockets comprising a pocket and a coil spring disposed in said pocket; and a first layer of cushion pockets comprising first and second cushion pockets; each of said first and second cushion pockets comprising a pocket and a cushion member disposed in said pocket; said first layer of cushion pockets further comprising an attachment member comprising an upper surface and a lower surface ; said first and second cushion pockets being engaged with said upper surface of said attachment member; said lower surface of said attachment member being engaged with said layer of coil pockets such that said first and second cushion pockets act directly upon said first and second coil pockets, respectively. a layer of coil pockets comprising first and second coil pockets; each of said first and second coil pockets comprising a pocket and a coil spring disposed in said pocket; and a first layer of cushion pockets comprising first and second cushion pockets; each of said first and second cushion pockets comprising a pocket and a cushion member disposed in said pocket; said first layer of cushion pockets further comprising an attachment member comprising an upper surface and a lower surface ; said first and second cushion pockets being engaged with said upper surface of said attachment member; said lower surface of said attachment member being engaged with said layer of coil pockets such that said first and second cushion pockets act directly upon said first and second coil pockets, respectively.
A method for controlling an actuator comprising a movable element , the method comprising steps of: • receiving a set point signal (E) and two position measurement signals (A, B) of the movable element acquired by different position sensors ; • calculating a deviation between both position measurement signals (A, B); • generating a control signal (S) to control a movement of the movable element , from the set point signal (E) and at least one of the position measurement signals (A, B); • controlling the movement of the movable element of the actuator using the control signal (S) generated; characterised in that when the deviation between the position measurement signals (A, B) crosses a predetermined threshold, said method includes the following steps of: • setting the open loop control signal (S) to a constant value selected independently of the position measurement signals (A, B) so as to immobilise the movable element ; • for each of both measurement signals (A, B), calculating a position interval associated with the measurement signal (A), wherein at least one of the position intervals has a length greater than the resolution of the position sensor having acquired the measurement signal (A) associated with the interval; • detecting an exit of the value of a measurement signal (A) out of the associated interval while the control signal (S) is set to the constant value. • receiving a set point signal (E) and two position measurement signals (A, B) of the movable element acquired by different position sensors ; • calculating a deviation between both position measurement signals (A, B); • generating a control signal (S) to control a movement of the movable element , from the set point signal (E) and at least one of the position measurement signals (A, B); • controlling the movement of the movable element of the actuator using the control signal (S) generated; • setting the open loop control signal (S) to a constant value selected independently of the position measurement signals (A, B) so as to immobilise the movable element ; • for each of both measurement signals (A, B), calculating a position interval associated with the measurement signal (A), wherein at least one of the position intervals has a length greater than the resolution of the position sensor having acquired the measurement signal (A) associated with the interval; • detecting an exit of the value of a measurement signal (A) out of the associated interval while the control signal (S) is set to the constant value.
Lighting module for a luminaire , in particular an examination luminaire comprising at least one semiconductor light source , in particular light-emitting diode or laser diode, and at least one optical unit or common optical unit disposed downstream of the at least one semiconductor light source , wherein the lighting module is integratable into the luminaire in an exchangeable fashion, wherein the at least one optical unit or common optical unit disposed downstream of the at least one semiconductor light source comprises at least one collecting optical unit, wherein the at least one optical unit or common optical unit disposed downstream of the at least one semiconductor light source comprises at least one reflector disposed downstream of the at least one collecting optical unit, wherein the lighting module comprises a heat sink wherein the lighting module comprises a bearing surface for a handle , characterized in that at least the heat sink , the at least one semiconductor light source , the at least one collecting optical unit , the at least one reflector and the bearing surface are arranged substantially one behind another in this order.
Heat sink having a main body and a plurality of carbon nanostructure-based fibres (CNB, 3), in particular carbon nanotubes (CNT, 4) or graphene fibres, at least some of which are secured to the main body for heat transfer, wherein due to mutual adhesion or support the fibres form a volume structure , in particular in the form of a wadding, felt or a yarn, or wherein the fibres form loops or a three-dimensional fabric, characterized by at least one support structure , in particular made of metal and/or of preferably further carbon nanostructure-based fibres (CNB, 3), in particular carbon nanotubes (CNT, 4) or graphene fibres, which supports the fibres , wherein the at least one support structure is grid-shaped and assists the securing to the main body and/or counterbody , in particular is cast into the main body and/or the counterbody .
A vehicle comprising: a system including a shell structure and a first buoyant material molded in the shape of the shell structure, wherein the system includes a cavity formed between the shell structure and the first buoyant material ; and characterised in that the vehicle comprises a flexible container containing a second buoyant material, wherein the flexible container is provided in the cavity formed between the shell structure and the first buoyant material ; wherein the second buoyant material is a syntactic wax or syntactic oil. a system including a shell structure and a first buoyant material molded in the shape of the shell structure, wherein the system includes a cavity formed between the shell structure and the first buoyant material ; and characterised in that the vehicle comprises a flexible container containing a second buoyant material, wherein the flexible container is provided in the cavity formed between the shell structure and the first buoyant material ; wherein the second buoyant material is a syntactic wax or syntactic oil.
A blind rivet with a rivet sleeve which has a shank , a setting head and a closing head end , and with a rivet mandrel with a rivet mandrel head , wherein the shank has a reinforcing region between the setting head and the closing head end , characterized in that the reinforcing region extends at most up to a distance from the setting head which corresponds to a minimum clamping region of the blind rivet , wherein the reinforcing region has a greater wall thickness than a deformation portion of the shank adjoining the reinforcing region on the side facing away from the setting head , the deformation portion has a recess on its radially outer side and an end of a bottom of the recess adjacent to the setting head is arranged at the minimum clamping region of the blind rivet .
Label sensor for scanning labels on the carrier strip, comprising a sensor body carrying a ferromagnetic core , a coil and a scanning element , characterized in that the sensor body is embodied in the form of a printed circuit board with at least one electrically insulating carrier layer and at least one conductor plane having electric conductors, which is arranged on the carrier layer , and in that a central connection region of the sensor body has a lower thickness or weakening compared to the contact and sensor regions , which adjoin it on both sides.
An acid addition salt of a compound represented by the formula (IA): or its hydrate; provided that the acid is 1) an acid having a substituted or unsubstituted benzenesulfonic acid group or 2) a mixed acid comprising the acid having a substituted or unsubstituted benzenesulfonic acid group and an inorganic acid.
An apparatus configured to retransmit signals in a communication system, comprising: means for decoding contents of a unit of received signal, wherein said contents of said unit of received signal are decoded in accordance with information carried on a control channel; means for generating a first feedback signal; means for generating a second feedback signal; means for determining a quality metric of said unit of received signal; means for instructing said means for generating a first feedback signal to generate said first feedback signal in accordance with said quality metric, wherein the first feedback signal does not contain an explicit indication as to which unit of received signal is to be retransmitted, means for instructing said means for generating a second feedback signal to generate said second feedback signal in accordance with a sequence number of said unit of received signal when a retransmission of said unit of received signal in accordance with said quality metric is declared a failure; means for detecting a preamble of said unit of received signal; and means for preventing decoding of said unit of received signal if said preamble indicates that said unit of received signal is not to be decoded. means for decoding contents of a unit of received signal, wherein said contents of said unit of received signal are decoded in accordance with information carried on a control channel; means for generating a first feedback signal; means for generating a second feedback signal; means for determining a quality metric of said unit of received signal; means for instructing said means for generating a first feedback signal to generate said first feedback signal in accordance with said quality metric, wherein the first feedback signal does not contain an explicit indication as to which unit of received signal is to be retransmitted, means for instructing said means for generating a second feedback signal to generate said second feedback signal in accordance with a sequence number of said unit of received signal when a retransmission of said unit of received signal in accordance with said quality metric is declared a failure; means for detecting a preamble of said unit of received signal; and means for preventing decoding of said unit of received signal if said preamble indicates that said unit of received signal is not to be decoded.
A continuously operating dough kneading device with a trough area which is arranged between an inlet and an outlet and comprises a kneading area in which kneading tools are arranged, wherein in the trough area at least one nozzle is arranged and the trough area is arranged in a trough which comprises a plurality of wall sections (18-23) wherein at least two adjacent wall sections (18-23) form an angle with regard to each other and a jet of the nozzle is directed at an angle onto at least one wall section (18-23), wherein the jet reflected from this wall section (18-23) is directed to an area of the kneading area which screened off from the nozzle by the kneading tools .