mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting network comprising a plurality of lighting units and at least one controller , wherein each lighting unit comprises: a lighting emitting unit ; a driver coupled to the lighting emitting unit ; an AC/DC converter arranged to supply power to the driver ; a DC battery unit , coupled to the driver , wherein the DC battery unit is arranged to supply power to the driver if the AC/DC converter cannot supply the power to the driver , characterized in that the controller is arranged to redistribute the DC power between the plurality of lighting units by enabling power from the DC battery unit to pass from one of the plurality of lighting units to another one of the plurality of lighting units on the lighting network . a lighting emitting unit ; a driver coupled to the lighting emitting unit ; an AC/DC converter arranged to supply power to the driver ; a DC battery unit , coupled to the driver ,
A population of encapsulated pancreatic endocrine precursor cells for use in a method for lowering blood glucose levels in an animal by transplanting the population of encapsulated pancreatic endocrine precursor cells into the animal, wherein the pancreatic endocrine precursor cells are differentiated in vitro from cells expressing markers characteristic of the pancreatic endoderm lineage in a medium supplemented with a factor capable of inhibiting BMP and a TGF-beta receptor I kinase inhibitor and wherein the pancreatic endocrine precursor cells express NKX2.2 and ARX.
A gas sensor processing apparatus for processing an output of a gas sensor including a detection element which is formed of a solid electrolyte body, which has a pair of electrodes , and which detects the concentration of a specific gas, comprising: voltage shift means for shifting a detection element voltage produced between the electrodes of the detection element from a pre-shift voltage, VE1, to a post-shift voltage, VE2, different from the pre-shift voltage; recovery means for returning the detection element voltage from the post-shift voltage to the pre-shift voltage through self-discharge by an internal capacitor of the detection element after the end of a voltage shift period in which the detection element voltage is shifted by the voltage shift means; characterized in comprising deterioration index detection means for detecting a deterioration index representing the degree of deterioration of the detection element by periodically measuring the detection element voltage produced between the electrodes of the detection element within a recovery period in which the detection element voltage returns from the post-shift voltage, VE2, toward the pre-shift voltage, VE1, and detecting, as the deterioration index, the time constant of an exponential function which approximates the curve which represents the changing detection element voltage. voltage shift means for shifting a detection element voltage produced between the electrodes of the detection element from a pre-shift voltage, VE1, to a post-shift voltage, VE2, different from the pre-shift voltage; recovery means for returning the detection element voltage from the post-shift voltage to the pre-shift voltage through self-discharge by an internal capacitor of the detection element after the end of a voltage shift period in which the detection element voltage is shifted by the voltage shift means; characterized in comprising deterioration index detection means for detecting a deterioration index representing the degree of deterioration of the detection element by periodically measuring the detection element voltage produced between the electrodes of the detection element within a recovery period in which the detection element voltage returns from the post-shift voltage, VE2, toward the pre-shift voltage, VE1, and detecting, as the deterioration index, the time constant of an exponential function which approximates the curve which represents the changing detection element voltage.
Wound heat exchanger for the exchange of heat between a refrigerant (K) and a medium, comprising a shell , a bundle of tubes which is arranged inside the shell and through which the medium can flow, a first annular channel which is arranged inside the shell and runs around it and is intended for separating a liquid phase (KL) of the refrigerant (K) from a gaseous phase (KG) of the refrigerant (K), a second annular channel which is arranged inside the shell and runs around it and is intended for evenly distributing the liquid phase (KL) over the bundle of tubes in order to exchange the heat between the refrigerant (K) and the medium, and a connecting channel (10-12) which establishes a fluid connection between the first annular channel and the second annular channel in order to conduct the liquid phase (KL) out of the first annular channel into the second annular channel , wherein the first annular channel and the second annular channel are spaced apart from one another when viewed along an axis of symmetry of the shell .
A device for configuring an infrared (IR) emitter-based traffic control preemption system , comprising: a support structure ; a microprocessor attached to the support structure; an IR receiver attached to the support structure and coupled to the microprocessor; an interface circuit attached to the support structure and configured to provide communications between the microprocessor and a portable computing device ; a memory attached to the support structure and coupled to the microprocessor, wherein the memory is configured with instructions and execution of the instructions by the microprocessor cause the microprocessor to: communicate with an application executing on the portable computing device; receive a verification command from the application; initiate transmission of configuration data and the verification command to the IR emitter-based traffic control preemption system ; capture an IR light signal via the IR receiver ; convert the IR light signal into diagnostic data; and communicate the diagnostic data to the application executing on the portable computing device; and a transmitter attached to the support structure and coupled to the microprocessor , the transmitter configured to transmit the configuration data and the verification command to the IR emitter-based traffic control preemption system . a support structure ; a microprocessor attached to the support structure; an IR receiver attached to the support structure and coupled to the microprocessor; an interface circuit attached to the support structure and configured to provide communications between the microprocessor and a portable computing device ; a memory attached to the support structure and coupled to the microprocessor, wherein the memory is configured with instructions and execution of the instructions by the microprocessor cause the microprocessor to: communicate with an application executing on the portable computing device; receive a verification command from the application; initiate transmission of configuration data and the verification command to the IR emitter-based traffic control preemption system ; capture an IR light signal via the IR receiver ; convert the IR light signal into diagnostic data; and communicate the diagnostic data to the application executing on the portable computing device; and communicate with an application executing on the portable computing device; receive a verification command from the application; initiate transmission of configuration data and the verification command to the IR emitter-based traffic control preemption system ; capture an IR light signal via the IR receiver ; convert the IR light signal into diagnostic data; and communicate the diagnostic data to the application executing on the portable computing device; and a transmitter attached to the support structure and coupled to the microprocessor , the transmitter configured to transmit the configuration data and the verification command to the IR emitter-based traffic control preemption system .
An administration device for supplying an injectable or infusible product into an organism, in particular a patient, comprising: a)a reservoir for storing the product; and b) a supply device for supplying the product from the reservoir into the organism; c)a controller configured to control operation of the administration device ; d) a button operatively coupled to the controller to initiate at least one action of the administration device , characterised by : e) a touch sensor for generating an activation signal to enable the button , wherein the touch sensor is incorporated into the button or is located in the vicinity of the button and is operatively coupled to the button and/or the controller , wherein the activation signal is generated by the touch sensor if a patient's finger physically touches the button and/or a finger is in its proximity of 1mm or below, wherein the controller is configured to enable and/or disable functions of the device within a predetermined period of time after receiving the activation signal. a)a reservoir for storing the product; and b) a supply device for supplying the product from the reservoir into the organism; c)a controller configured to control operation of the administration device ; d) a button operatively coupled to the controller to initiate at least one action of the administration device ,
Method of determining a three-dimensional motion of a movable ultrasound probe during acquisition of an ultrasound image of a volume portion by the ultrasound probe, the method comprising: - Receiving a stream of ultrasound image data from the ultrasound probe while the ultrasound probe is moved along the volume portion ; - Inputting at least a sub-set of the ultrasound image data representing a plurality of ultrasound image frames into a machine-learning module , wherein the machine learning module has been trained to determine the relative three-dimensional motion between ultrasound image frames ; - Inputting further sensor data into the machine-learning module , wherein the further sensor data is synchronized with the ultrasound image data and wherein the further sensor data includes at least one of position data, obtained by a tracking system tracking a position of the ultrasound probe, acceleration data representing the acceleration corresponding to the at least two ultrasound image frames, the acceleration being detected by an acceleration sensor attached to the ultrasound probe and gyroscope data; and - Determining, by the machine-learning module , a three-dimensional motion indicator indicating the relative three-dimensional motion between the ultrasound image frames. - Receiving a stream of ultrasound image data from the ultrasound probe while the ultrasound probe is moved along the volume portion ; - Inputting at least a sub-set of the ultrasound image data representing a plurality of ultrasound image frames into a machine-learning module , wherein the machine learning module has been trained to determine the relative three-dimensional motion between ultrasound image frames ; - Inputting further sensor data into the machine-learning module , wherein the further sensor data is synchronized with the ultrasound image data and wherein the further sensor data includes at least one of position data, obtained by a tracking system tracking a position of the ultrasound probe, acceleration data representing the acceleration corresponding to the at least two ultrasound image frames, the acceleration being detected by an acceleration sensor attached to the ultrasound probe and gyroscope data; and - Determining, by the machine-learning module , a three-dimensional motion indicator indicating the relative three-dimensional motion between the ultrasound image frames.
A method implemented by one or more processors, the method comprising: detecting, at a client device, an invocation input that at least selectively invokes a first automated assistant and a second automated assistant; determining whether the invocation input is directed to the first automated assistant or is directed to the second automated assistant, wherein the determining is based on processing: one or more invocation features of the invocation input, wherein the one or more invocation features includes one or more prosodic features determined from audio data that includes the invocation input; and in response to determining that the invocation input is directed to the first automated assistant: invoking the first automated assistant in lieu of invoking the second automated assistant. detecting, at a client device, an invocation input that at least selectively invokes a first automated assistant and a second automated assistant; determining whether the invocation input is directed to the first automated assistant or is directed to the second automated assistant, wherein the determining is based on processing: one or more invocation features of the invocation input, wherein the one or more invocation features includes one or more prosodic features determined from audio data that includes the invocation input; and in response to determining that the invocation input is directed to the first automated assistant: invoking the first automated assistant in lieu of invoking the second automated assistant. one or more invocation features of the invocation input, wherein the one or more invocation features includes one or more prosodic features determined from audio data that includes the invocation input; and in response to determining that the invocation input is directed to the first automated assistant: invoking the first automated assistant in lieu of invoking the second automated assistant.
A method for forming a membrane system including a hollow fiber membrane and a static mixer arranged within the hollow portion of the hollow fiber membrane, comprising the steps (i) providing a spinneret having a first outlet opening, a second outlet opening and a third outlet opening, wherein the first outlet opening is arranged on an outlet axis of the spinneret, has an oblong cross-sectional shape and is movable around the outlet axis; the second outlet opening is arranged around the first outlet opening and within the circumference of the third outlet opening; and the third outlet opening is arranged around the first outlet opening and around the circumference of the second outlet opening; (ii) providing a polymer solution (a) for forming the static mixer; (iii) providing a bore solution (b); (iv) providing a polymer solution (c) for forming the hollow fiber membrane; (v) extruding the polymer solution (a) for forming the static mixer through the first opening, extruding the bore solution (b) through the second opening, extruding the polymer solution (c) for forming the hollow fiber membrane through the third opening to form a jet of the solutions (a), (b) and (c); (vi) moving the first opening around the outlet axis for at least a part of the duration of step (v); (vii) immersing the jet into a coagulation bath; to coagulate the hollow fiber membrane and the static mixer. (i) providing a spinneret having a first outlet opening, a second outlet opening and a third outlet opening, wherein the first outlet opening is arranged on an outlet axis of the spinneret, has an oblong cross-sectional shape and is movable around the outlet axis; the second outlet opening is arranged around the first outlet opening and within the circumference of the third outlet opening; and the third outlet opening is arranged around the first outlet opening and around the circumference of the second outlet opening; the first outlet opening is arranged on an outlet axis of the spinneret, has an oblong cross-sectional shape and is movable around the outlet axis; the second outlet opening is arranged around the first outlet opening and within the circumference of the third outlet opening; and the third outlet opening is arranged around the first outlet opening and around the circumference of the second outlet opening; (ii) providing a polymer solution (a) for forming the static mixer; (iii) providing a bore solution (b); (iv) providing a polymer solution (c) for forming the hollow fiber membrane; (v) extruding the polymer solution (a) for forming the static mixer through the first opening, extruding the bore solution (b) through the second opening, extruding the polymer solution (c) for forming the hollow fiber membrane through the third opening to form a jet of the solutions (a), (b) and (c); (vi) moving the first opening around the outlet axis for at least a part of the duration of step (v); (vii) immersing the jet into a coagulation bath; to coagulate the hollow fiber membrane and the static mixer.
An implantable inflatable penile prosthesis cylinder comprising: an outer tube member having a longitudinal axis ; an inner tube member contained within the outer tube member , the inner tube member comprising at least one inflatable chamber section, wherein at least a portion of each chamber section is defined by a wall of the inner tube member ; and one or more tensile support members within the inner tube member , each tensile support member extending between interior surfaces of the wall ; wherein the one or more tensile support members are in tension when the at least one chamber section is in an inflated state. an outer tube member having a longitudinal axis ; an inner tube member contained within the outer tube member , the inner tube member comprising at least one inflatable chamber section, wherein at least a portion of each chamber section is defined by a wall of the inner tube member ; and one or more tensile support members within the inner tube member , each tensile support member extending between interior surfaces of the wall ; wherein the one or more tensile support members are in tension when the at least one chamber section is in an inflated state.
A semiconductor device, comprising: a substrate , on which multiple bit lines are arranged at intervals along a first direction; multiple isolating gate structures , which are located between the adjacent bit lines and arranged on the substrate at intervals along a second direction, wherein the isolating gate structure comprises a first isolating part and a second isolating part , the first isolating part surrounds the second isolating part, and a top surface of the first isolating part is not lower than a top surface of the bit line ; a storage node contact structure , which is located between the adjacent isolating gate structures , and a bottom of which extends into the substrate , characterized by further comprising: a third dielectric layer , formed on a top surface of the second isolating part, wherein the top surface of the second isolating part is lower than the top surface of the first isolating part, a top surface of the third dielectric layer is flush with the top surface of the first isolating part, and materials of the second isolating part and the third dielectric layer are different. a substrate , on which multiple bit lines are arranged at intervals along a first direction; multiple isolating gate structures , which are located between the adjacent bit lines and arranged on the substrate at intervals along a second direction, wherein the isolating gate structure comprises a first isolating part and a second isolating part , the first isolating part surrounds the second isolating part, and a top surface of the first isolating part is not lower than a top surface of the bit line ; a storage node contact structure , which is located between the adjacent isolating gate structures , and a bottom of which extends into the substrate , characterized by further comprising: a third dielectric layer , formed on a top surface of the second isolating part, wherein the top surface of the second isolating part is lower than the top surface of the first isolating part, a top surface of the third dielectric layer is flush with the top surface of the first isolating part, and materials of the second isolating part and the third dielectric layer are different. a third dielectric layer , formed on a top surface of the second isolating part, wherein the top surface of the second isolating part is lower than the top surface of the first isolating part, a top surface of the third dielectric layer is flush with the top surface of the first isolating part, and materials of the second isolating part and the third dielectric layer are different.
System (S) for the variation of the surface of the unloading station of a machine (M) for working panels comprising at least one machine (M) for cutting panels in wood, plastic, glass, fiberglass, ceramic and metal, comprising a loading station provided with a supporting plane , which extends along a second axis (Y), to support at least one panel to be worked, a working unit in which said at least one panel is cut along a cutting line parallel to a first axis (X) orthogonal to said second axis (Y), an unloading station of said at least one worked panel, provided with a plurality of initial planes (P), arranged side by side and parallel with respect to said second axis (Y) and spaced apart, each being movable along said first axis (X); one or more additional planes (PA) stackable in a storage unit (Z); said system (S) being characterized in that it comprises a handling device (D) capable of moving said one or more additional planes (P A ) from said storage unit (Z) towards said unloading station and of arranging said one or more additional planes (P A ) between said initial planes (P). at least one machine (M) for cutting panels in wood, plastic, glass, fiberglass, ceramic and metal, comprising a loading station provided with a supporting plane , which extends along a second axis (Y), to support at least one panel to be worked, a working unit in which said at least one panel is cut along a cutting line parallel to a first axis (X) orthogonal to said second axis (Y), an unloading station of said at least one worked panel, provided with a plurality of initial planes (P), arranged side by side and parallel with respect to said second axis (Y) and spaced apart, each being movable along said first axis (X); one or more additional planes (PA) stackable in a storage unit (Z); said system (S) being characterized in that it comprises a handling device (D) capable of moving said one or more additional planes (P A ) from said storage unit (Z) towards said unloading station and of arranging said one or more additional planes (P A ) between said initial planes (P).