mhurhangee/patent-ind-claim-en huggingface dataset:
A circuit for supplying power to a luminaire having at least one LED as a light source, the circuit having a signal input for receiving a temperature signal and an electrical supply output or a control signal output for driving an electrical supply device having a supply output, the supply output providing an electrical current for supplying the at least one LED of the luminaire, and where the temperature signal corresponds to an ambient temperature of the lamp or to the temperature of the lamp itself, wherein the circuit provides a lower current when the temperature signal is in a first temperature interval than when the temperature signal is in a second higher temperature interval adjacent a first threshold temperature (T S ), characterized in that the circuit provides the current so that it is independent of the temperature signal, when the temperature signal is in the second temperature interval, and wherein the circuit provides less current when the temperature signal is in a third temperature interval than when the temperature signal is in the second temperature interval, the third temperature interval being higher than the second temperature interval and adjacent thereto at a second threshold temperature (T R ).
Household device (9; 16; 24; 42), in particular laundry cleaning appliance, having at least one optical liquid meter (1; 11; 21; 31), which has - at least one light guide (2; 17; 22, 23; 32; 43, 44, 45) which can be wetted at least partially with a liquid (F), - at least one light source , by means of which light (S) can be coupled into the light guide (2; 17; 22, 23; 32; 43, 44, 45), and - at least one light sensor (7; 7a, 7b) for detecting light coupled out of the light guide, and the household appliance (9; 16; 42) has at least one evaluation unit , which is embodied to determine at least one status parameter of the liquid (F) in the household appliance (9; 16; 42) on the basis of the measurement data received by the at least one light sensor (7; 7a, 7b), characterised in that the status parameter is a refraction index of the liquid surrounding the light guide (2; 17; 22, 23; 32; 43, 44, 45). - at least one light guide (2; 17; 22, 23; 32; 43, 44, 45) which can be wetted at least partially with a liquid (F), - at least one light source , by means of which light (S) can be coupled into the light guide (2; 17; 22, 23; 32; 43, 44, 45), and - at least one light sensor (7; 7a, 7b) for detecting light coupled out of the light guide, and the household appliance (9; 16; 42) has at least one evaluation unit , which is embodied to determine at least one status parameter of the liquid (F) in the household appliance (9; 16; 42) on the basis of the measurement data received by the at least one light sensor (7; 7a, 7b),
A blood treatment system , comprising: a machine comprising one or more pumps ; a blood circuit in engagement with the one or more pumps and having an inlet line and an outlet line for conveying blood to and from a patient , respectively; at least two pressure sensors in at least one of the inlet line or the outlet line; and a controller configured to control the one or more pumps to convey blood to and from the patient , the controller further configured to use readings of the at least two pressure sensors to determine a change over time in a pressure drop across a flow restriction in the blood circuit and perform a function responsive to the change in the pressure drop, the function comprising at least one of: generating a notification, adjusting a blood flow rate in the blood circuit, outputting an estimation of a condition of the machine or the patient, or outputting data responsive to said estimation, characterized in that the controller is configured to sample the pressure drop at multiple times over a period of time comprising a single treatment or multiple treatments and store data responsive thereto, wherein the change in the pressure drop is determined based on a trend over time of the stored data. a machine comprising one or more pumps ; a blood circuit in engagement with the one or more pumps and having an inlet line and an outlet line for conveying blood to and from a patient , respectively; at least two pressure sensors in at least one of the inlet line or the outlet line; and a controller configured to control the one or more pumps to convey blood to and from the patient , the controller further configured to use readings of the at least two pressure sensors to determine a change over time in a pressure drop across a flow restriction in the blood circuit and perform a function responsive to the change in the pressure drop, the function comprising at least one of: generating a notification, adjusting a blood flow rate in the blood circuit, outputting an estimation of a condition of the machine or the patient, or outputting data responsive to said estimation, characterized in that the controller is configured to sample the pressure drop at multiple times over a period of time comprising a single treatment or multiple treatments and store data responsive thereto, wherein the change in the pressure drop is determined based on a trend over time of the stored data. generating a notification, adjusting a blood flow rate in the blood circuit, outputting an estimation of a condition of the machine or the patient, or outputting data responsive to said estimation, characterized in that the controller is configured to sample the pressure drop at multiple times over a period of time comprising a single treatment or multiple treatments and store data responsive thereto, wherein the change in the pressure drop is determined based on a trend over time of the stored data.
A method of wireless communication by a user equipment, UE, in a shared spectrum, comprising: receiving a grant for uplink communication; determining a reporting subframe based on the grant; determining whether to select, as a reference subframe, a triggering subframe in which the grant is received or a subframe before the reporting subframe; and transmitting , in the reporting subframe, channel state information, CSI, based on a measurement of the reference subframe; wherein the grant includes one or more multiple transmission time interval, multi-TTI, grants dynamically indicated in a downlink control information; and wherein the reporting subframe is one of subframes indicated by one or more multi-TTI grants. receiving a grant for uplink communication; determining a reporting subframe based on the grant; determining whether to select, as a reference subframe, a triggering subframe in which the grant is received or a subframe before the reporting subframe; and transmitting , in the reporting subframe, channel state information, CSI, based on a measurement of the reference subframe; wherein the grant includes one or more multiple transmission time interval, multi-TTI, grants dynamically indicated in a downlink control information; and wherein the reporting subframe is one of subframes indicated by one or more multi-TTI grants.
A plurality of ruthenium nanoparticles having an X-ray diffraction pattern, wherein the X-ray diffraction pattern can only be fitted with a face-centered cubic lattice having a space group Fm-3m.
Device for monitoring at least one vital parameter of an animal fetus during parturition, the device comprising a sensor for measuring the at least one vital parameter, including the oxygen saturation of arterial hemoglobin and/or the pulse rate, of the animal fetus, wherein the sensor is arranged inside a hoof cover for being placed on at least one hoof of the animal fetus, characterized in that the hoof cover is a cast taken from the hoof of an animal of the same species as the animal fetus.
A flow-rate measurement device comprising: a first transducer and a second transducer which are provided in a fluid flow path to transmit and receive an ultrasonic signal; a timer unit which measures a propagation time of the ultrasonic signal propagating between the first transducer and the second transducer; and a flow-rate calculation unit which is configured to execute a unit measurement step a predetermined number of times and calculates a flow rate of a fluid flowing in the fluid flow path on the basis of the propagation times measured the predetermined number of times, the unit measurement step being an operation in which a direction of transmission to reception between the first transducer and the second transducer is switched and the timer unit measures the propagation times of the ultrasonic signal in both directions, wherein the flow-rate calculation unit is configured to measure a flow rate value of the fluid by first completing an exploratory measurement step, and to execute secondly a precise measurement step in which the unit measurement step is executed a plural number of times to calculate the flow-rate, wherein, in the exploratory measurement step, the unit measurement step is executed a smaller number of times than the number of executions in the precise measurement step to calculate the flow rate, and wherein the precise measurement step is executed only when the flow rate value of the fluid obtained in the exploratory measurement step is equal to or greater than a predetermined value. a first transducer and a second transducer which are provided in a fluid flow path to transmit and receive an ultrasonic signal; a timer unit which measures a propagation time of the ultrasonic signal propagating between the first transducer and the second transducer; and a flow-rate calculation unit which is configured to execute a unit measurement step a predetermined number of times and calculates a flow rate of a fluid flowing in the fluid flow path on the basis of the propagation times measured the predetermined number of times, the unit measurement step being an operation in which a direction of transmission to reception between the first transducer and the second transducer is switched and the timer unit measures the propagation times of the ultrasonic signal in both directions, wherein the flow-rate calculation unit is configured to measure a flow rate value of the fluid by first completing an exploratory measurement step, and to execute secondly a precise measurement step in which the unit measurement step is executed a plural number of times to calculate the flow-rate, wherein, in the exploratory measurement step, the unit measurement step is executed a smaller number of times than the number of executions in the precise measurement step to calculate the flow rate, and wherein the precise measurement step is executed only when the flow rate value of the fluid obtained in the exploratory measurement step is equal to or greater than a predetermined value.
A method of generating an output signal of a PDAF pixel of an optoelectronic image sensor using pixel signals from further pixels arranged in an environment of the PDAF pixel , wherein, within the environment used to generate the output signal , the image sensor has the PDAF pixel and at least one further PDAF pixel in a pixel row extending along a first direction , wherein the method comprises: - detecting pixel signals of the pixels of the image sensor arranged within the environment ; - determining a structure direction of an image structure imaged onto the image sensor from the pixel signals of at least some of the pixels arranged within the environment ; and - generating the output signal of the PDAF pixel , wherein the structure direction is determined as that direction in which the imaged image structure has the lowest contrast, wherein the output signal of the PDAF pixel is generated in one case as an interpolation signal from the pixel signals of further pixels arranged within the environment and in another case as an amplified signal by correcting the pixel signal of the PDAF pixel with an amplification factor, characterized in that the output signal of the PDAF pixel is generated as the amplified signal if the structure direction differs from the first direction by less than a predefined angle. using pixel signals from further pixels arranged in an environment of the PDAF pixel , wherein, within the environment used to generate the output signal , the image sensor has the PDAF pixel and at least one further PDAF pixel in a pixel row extending along a first direction , wherein the method comprises: - detecting pixel signals of the pixels of the image sensor arranged within the environment ; - determining a structure direction of an image structure imaged onto the image sensor from the pixel signals of at least some of the pixels arranged within the environment ; and - generating the output signal of the PDAF pixel , - detecting pixel signals of the pixels of the image sensor arranged within the environment ; - determining a structure direction of an image structure imaged onto the image sensor from the pixel signals of at least some of the pixels arranged within the environment ; and - generating the output signal of the PDAF pixel , wherein the structure direction is determined as that direction in which the imaged image structure has the lowest contrast, wherein the output signal of the PDAF pixel is generated in one case as an interpolation signal from the pixel signals of further pixels arranged within the environment and in another case as an amplified signal by correcting the pixel signal of the PDAF pixel with an amplification factor, characterized in that the output signal of the PDAF pixel is generated as the amplified signal if the structure direction differs from the first direction by less than a predefined angle.
Energy storage arrangement, comprising: - a stack consisting of a plurality of battery modules , wherein the battery modules each comprise battery cells and at least one cooling plate for cooling the battery cells , and - at least one coolant distributor plate , which is arranged on one side of the stack and which has at least one cooling circuit system for cooling the battery cells of the battery module , characterised in that - the cooling circuit system has a cooling distributor with at least one supply channel for suppling the cooling fluid to the battery modules and at least one return channel for returning the cooling fluid from the battery modules and a plurality of feed channels for transporting the cooling fluid from the at least one supply channel to the cooling plates , as well as a plurality of feedback channels for transporting the cooling fluid away from the cooling plates and to the at least one return channel , and wherein the supply channel , the return channel , the feed channels and the feedback channels are each embodied as a milled recess in the coolant distributor plate . - a stack consisting of a plurality of battery modules , wherein the battery modules each comprise battery cells and at least one cooling plate for cooling the battery cells , and - at least one coolant distributor plate , which is arranged on one side of the stack and which has at least one cooling circuit system for cooling the battery cells of the battery module , characterised in that - the cooling circuit system has a cooling distributor with at least one supply channel for suppling the cooling fluid to the battery modules and at least one return channel for returning the cooling fluid from the battery modules and a plurality of feed channels for transporting the cooling fluid from the at least one supply channel to the cooling plates , as well as a plurality of feedback channels for transporting the cooling fluid away from the cooling plates and to the at least one return channel , and wherein the supply channel , the return channel , the feed channels and the feedback channels are each embodied as a milled recess in the coolant distributor plate .
Inflation device for inflating an inflatable element , wherein said inflatable element is intended to protect at least partially an area of a body of a user, and wherein the inflation device includes at least one gas generator and a container for containing said at least one gas generator , and wherein the container and the at least one gas generator define a structurally independent assembly, configured to be handled as a single body, with respect to said inflatable element , and wherein the inflation device comprises a coupling component configured to be coupled in a detachable manner with a coupling counter-component associated with said inflatable element , characterized in that said container is a closed body comprising at least two shells joined together as one piece and detachable from each other only once or in an irreversible manner or connected by calibrated breakage means.
A wheelchair brake assembly comprising a seat brake system and a wheel frame brake system , said seat brake system and said wheel frame brake system being separable from each other, said seat brake system comprising a caregiver brake lever and an actuating member , said caregiver brake lever being coupled to said actuating member , said wheel frame brake system comprising a brake transmission assembly , a first brake mechanism and a second brake mechanism which are adapted to be provided on a first wheel and a second wheel of said wheelchair respectively, said brake transmission assembly being coupled to said first brake mechanism and said second brake mechanism , characterized in that said brake transmission assembly comprises an actuating lever having a first free end and a second end , said second end being coupled to said first brake mechanism and said second brake mechanism , said actuating lever being rotatable about an axis (A) perpendicular to the longitudinal extension of said actuating lever and located between said first free end and said second end of said actuating lever , wherein said actuating member of said seat brake system is adapted to operate on said first free end of said actuating lever to cause said actuating lever to rotate.
Hydraulic braking system for braking a vehicle wheel in accordance with a braking pressure control, comprising: - a hydraulic pump (2: 2') driven by an electric motor (1: 1') for hydraulic pressure generation, - an electronic control unit (4;4') for the determination of at least one control value for compensating a control error based on a measured actual braking pressure compared to a pressure demand setpoint, which - controls at least one actuator for a pressure increase or a pressure reduction of the actual braking pressure when adjusting to the pressure demand setpoint, characterized in that the electronic control unit controls the electric motor as an actuator to compensate the control error in such a way that in one direction of rotation the hydraulic pump causes a pressure increase of the braking pressure and in the other direction of rotation causes a pressure reduction of the braking pressure. - a hydraulic pump (2: 2') driven by an electric motor (1: 1') for hydraulic pressure generation, - an electronic control unit (4;4') for the determination of at least one control value for compensating a control error based on a measured actual braking pressure compared to a pressure demand setpoint, which - controls at least one actuator for a pressure increase or a pressure reduction of the actual braking pressure when adjusting to the pressure demand setpoint,
Implant device for performing spinal arthrodesis via the posterior at a facet joint, characterized in that it is in the shape of a flat element of constant thickness, comprising, in order to receive a bone graft, a large central opening which gives it a substantially annular shape, and which device is intended to be inserted into a cavity (C) previously made at the location of the facet joint to be immobilized; in that said element is D-shaped and comprises a rounded side which constitutes the distal edge for being inserted into said cavity (C), while an opposite straight proximal edge comprises a means for securing to a holding and positioning tool; and in that the opposite surfaces of said flat element comprise reliefs which consist of notches arranged perpendicularly to the insertion direction (S), each of the notches having a tooth profile with two faces of which one , the face oriented on the side of said proximal edge , is perpendicular or substantially perpendicular to the main plane of said element, while the other face is inclined.
A method for congestion monitoring in a data network , the method comprising: determining, at a server in the data network , that a user device has initiated a data session with the data network ; monitoring, at the server , a plurality of data flows associated with the data session to determine an average bandwidth of the plurality of data flows ; and determining a first congestion status of the data session based on the average bandwidth and one or more first criteria; whereby: the one or more first criteria comprise a first threshold level and a first time period; and the determining the first congestion status comprises: determining the data session as a congested data session candidate when the average bandwidth is below the first threshold; and determining the first congestion status as indicating that the data session is congested when the average bandwidth of the congested data session candidate remains below the first threshold level for longer than the first time period. determining, at a server in the data network , that a user device has initiated a data session with the data network ; monitoring, at the server , a plurality of data flows associated with the data session to determine an average bandwidth of the plurality of data flows ; and determining a first congestion status of the data session based on the average bandwidth and one or more first criteria; whereby: the one or more first criteria comprise a first threshold level and a first time period; and the determining the first congestion status comprises: determining the data session as a congested data session candidate when the average bandwidth is below the first threshold; and determining the first congestion status as indicating that the data session is congested when the average bandwidth of the congested data session candidate remains below the first threshold level for longer than the first time period. the one or more first criteria comprise a first threshold level and a first time period; and the determining the first congestion status comprises: determining the data session as a congested data session candidate when the average bandwidth is below the first threshold; and determining the first congestion status as indicating that the data session is congested when the average bandwidth of the congested data session candidate remains below the first threshold level for longer than the first time period. determining the data session as a congested data session candidate when the average bandwidth is below the first threshold; and determining the first congestion status as indicating that the data session is congested when the average bandwidth of the congested data session candidate remains below the first threshold level for longer than the first time period.
One or more peptide comprising an amino acid sequence having at least 70% identity to DEAQETAVSSH (SEQ ID NO: 1), for use in treating or ameliorating cerebrovascular diseases in a subject.