mhurhangee/patent-ind-claim-en huggingface dataset:
Rechargeable battery pack comprising a predefined number (n) of individual rechargeable battery cells (Z 1,...,n ) that are connected to one another and a monitoring unit , in particular in the form of a single cell monitoring circuit , for monitoring the individual rechargeable battery cells (Z 1,...,n ), wherein the monitoring unit has at least one voltmeter (V 1,... , n ) for detecting voltages (U 1,...,n ) of the individual rechargeable battery cells (Z 1,...,n ) with respectively assigned electronic switches (S 1,...,n ) and with a passive input circuit that has a plurality of resistors (R 1,...,n ) and capacitors (C 1,...,n ) and is designed to identify different electrical faults (F 1,..,4 ) within the passive input circuit by means of a time measuring unit , which is assigned to the monitoring unit , on the basis of a measurement of rise times (T An 1,...,n) of the voltages (U 1,...,n ) of the individual rechargeable battery cells (Z 1,...n ), characterized in that the electrical faults (F 1,...,4 ) within the passive input circuit are each identified by an absolute and/or relative evaluation of the rise times (T An 1,...,5 ) of the voltages (U 1,...,n ) of the individual rechargeable battery cells (Z 1,...,n ) by at least temporarily bypassing in each case one of the voltmeters (V 1,... , n ) of the monitoring unit by means of an assigned switch (S 1,...,n ) .
A method of storing, by a load and store circuit or other processing means , a variable precision floating point value to a memory address of a memory , the method comprising: generating the variable precision floating point value using a variable precision floating point processor or co-processor and storing the variable precision floating point value to one or more registers; and storing the variable precision floating point value from the one or more registers to the memory by: - reducing the bit length of the variable precision floating point value from a value that exceeds a size limit (MBB) to a value that is no more than the size limit (MBB); and - storing the variable precision floating point value to one of a plurality of storage zones in the memory, each of the plurality of storage zones having a same storage space size equal to or greater than the size limit (MBB). generating the variable precision floating point value using a variable precision floating point processor or co-processor and storing the variable precision floating point value to one or more registers; and storing the variable precision floating point value from the one or more registers to the memory by: - reducing the bit length of the variable precision floating point value from a value that exceeds a size limit (MBB) to a value that is no more than the size limit (MBB); and - storing the variable precision floating point value to one of a plurality of storage zones in the memory, each of the plurality of storage zones having a same storage space size equal to or greater than the size limit (MBB). - reducing the bit length of the variable precision floating point value from a value that exceeds a size limit (MBB) to a value that is no more than the size limit (MBB); and - storing the variable precision floating point value to one of a plurality of storage zones in the memory, each of the plurality of storage zones having a same storage space size equal to or greater than the size limit (MBB).
A receiver comprising: - a housing defining a chamber, - a motor assembly comprising: - a magnet assembly configured for providing a magnetic field in an air gap, - an armature comprising a first leg extending in a first direction through the air gap and extending through a coil tunnel, and - a diaphragm operationally attached to the armature , wherein the motor assembly is attached to an inner wall of the housing by a movable suspension structure , the movable suspension structure being attached to the inner wall of the housing at a single attachment point, and wherein the motor assembly is configured for pivotal movement around a pivot axis being substantially perpendicular to the first direction, wherein the suspension structure is formed as a compliant element which holds the motor assembly in the chamber, the motor assembly being attached to the housing only by the movable suspension structure , whereby the motor assembly can float in the chamber. - a housing defining a chamber, - a motor assembly comprising: - a magnet assembly configured for providing a magnetic field in an air gap, - an armature comprising a first leg extending in a first direction through the air gap and extending through a coil tunnel, and - a magnet assembly configured for providing a magnetic field in an air gap, - an armature comprising a first leg extending in a first direction through the air gap and extending through a coil tunnel, and - a diaphragm operationally attached to the armature ,
A fiber bundling agent comprising: a vinyl ester resin (A) having an alkoxy polyoxyalkylene structure, a urethane bond, a (meth)acryloyl group, and an epoxy group; and an aqueous medium, wherein the vinyl ester resin (A) has an epoxy equivalent of 3,500 g/eq to 11,000 g/eq, as measured based on JIS K7236:2001. a vinyl ester resin (A) having an alkoxy polyoxyalkylene structure, a urethane bond, a (meth)acryloyl group, and an epoxy group; and an aqueous medium, wherein the vinyl ester resin (A) has an epoxy equivalent of 3,500 g/eq to 11,000 g/eq, as measured based on JIS K7236:2001.
A method implemented at a terminal device, comprising: receiving Downlink Control Information, DCI, comprising one or more bits in a time domain resource allocation field from a network node, the DCI being conveyed via a Physical Downlink Control Channel, PDCCH, in a remaining minimum system information control resource set, RMSI CORESET; and determining , based on the time domain resource allocation field in the DCI, that one or more synchronization signal blocks are not transmitted from the network node to the terminal device, when the one or more synchronization signal blocks are associated with the RMSI CORESET overlapping with a Physical Downlink Shared Channel, PDSCH, scheduled by the PDCCH, wherein the time domain resource allocation is applied to the PDSCH. receiving Downlink Control Information, DCI, comprising one or more bits in a time domain resource allocation field from a network node, the DCI being conveyed via a Physical Downlink Control Channel, PDCCH, in a remaining minimum system information control resource set, RMSI CORESET; and determining , based on the time domain resource allocation field in the DCI, that one or more synchronization signal blocks are not transmitted from the network node to the terminal device, when the one or more synchronization signal blocks are associated with the RMSI CORESET overlapping with a Physical Downlink Shared Channel, PDSCH, scheduled by the PDCCH, wherein the time domain resource allocation is applied to the PDSCH.
Device for the automated diffusion of at least one volatile substance, the device comprising: - emission means configured for periodically diffusing the at least one volatile substance; and - at least one battery ; - at least one photovoltaic cell configured for transforming light energy into electric energy and storing said electric energy in the at least one battery ,generating electric energy (E) over time (t) for first environmental conditions and second environmental conditions , wherein in the first environmental conditions there is more light than in the second environmental conditions , the speed at which electric energy is generated being also greater in the first environmental conditions than in the second environmental conditions , a steeper slope being observed; - an electronic controller configured for determining activation intervals of the emission means depending at least on the transformed light energy, characterized in that : the electronic controller measures said steeper slope and it is used for adaptively modifying the control of the emission means , the electronic controller using the battery energy level as input information for performing adaptive control since said level is directly related to the amount of transformed light energy, the adaptive control performed by the electronic controller determining the time intervals in which the emission means are active, actively causing the diffusion of the volatile substance, reducing an emission frequency when the energy reserves drop, the time in which the emission means are active being maximized. - emission means configured for periodically diffusing the at least one volatile substance; and - at least one battery ; - at least one photovoltaic cell configured for transforming light energy into electric energy and storing said electric energy in the at least one battery ,generating electric energy (E) over time (t) for first environmental conditions and second environmental conditions , wherein in the first environmental conditions there is more light than in the second environmental conditions , the speed at which electric energy is generated being also greater in the first environmental conditions than in the second environmental conditions , a steeper slope being observed; - an electronic controller configured for determining activation intervals of the emission means depending at least on the transformed light energy, the electronic controller measures said steeper slope and it is used for adaptively modifying the control of the emission means , the electronic controller using the battery energy level as input information for performing adaptive control since said level is directly related to the amount of transformed light energy, the adaptive control performed by the electronic controller determining the time intervals in which the emission means are active, actively causing the diffusion of the volatile substance, reducing an emission frequency when the energy reserves drop, the time in which the emission means are active being maximized.
An electrophotographic photosensitive member comprising a conducive substrate and a photosensitive layer, wherein the photosensitive layer contains a charge generating material, a hole transport material, and a binder resin, and the binder resin includes a polyarylate resin represented by general formula shown below, where in the general formula , R 1 , R 2 , R 3 , and R 4 each represent, independently of one another, a hydrogen atom or a methyl group, r and s each represent an integer of at least 0 and no greater than 49, t and u each represent an integer of at least 1 and no greater than 50, r + s + t + u =100, r + t = s + u, r and t may be the same as or different from each other, s and u may be the same as or different from each other, X represents a divalent group represented by chemical formula , chemical formula , chemical formula , or chemical formula shown below, Y represents a divalent group represented by chemical formula , chemical formula , or chemical formula shown below, and X and Y are different from each other: the photosensitive layer contains a charge generating material, a hole transport material, and a binder resin, and the binder resin includes a polyarylate resin represented by general formula shown below, where in the general formula , R 1 , R 2 , R 3 , and R 4 each represent, independently of one another, a hydrogen atom or a methyl group, r and s each represent an integer of at least 0 and no greater than 49, t and u each represent an integer of at least 1 and no greater than 50, r + s + t + u =100, r + t = s + u, r and t may be the same as or different from each other, s and u may be the same as or different from each other, X represents a divalent group represented by chemical formula , chemical formula , chemical formula , or chemical formula shown below, Y represents a divalent group represented by chemical formula , chemical formula , or chemical formula shown below, and X and Y are different from each other:
A bearing assembly for a brake carrier , in particular for a utility vehicle, comprising a retaining element and a braking means support element , wherein the retaining element is or can be fixed by form fit, substance bonding and/or force fit to an axle or a chassis com ponent, wherein the axle extends along an axial direction (A), wherein the braking means support element has a first mounting region , wherein the retaining element has a first retaining region , and wherein the first mounting region is or can be brought into direct or indirect engagement with the first retaining region , such that a displacement along a first transverse direction (Q1) between the retaining element and the braking means support element is prevented by form fit, wherein the retaining element comprises a second retaining region , and the braking means support element comprises a second mounting region , and wherein the second retaining region is or can be brought into form-fit engagement with the second mounting region such that a force, in particular parallel to the second transverse direction (Q2), can be transmitted between the second retaining region and the second mounting region by form fit, characterized in that the second retaining region forms a second distal end of the retaining element , wherein the second mounting region forms a second distal end of the braking means support element , and wherein the second distal ends delimit the retaining element and the braking means support element , in particular in the first transverse direction (Q1).
A circuit for generating a modulated signal in a transmitter of an integrated circuit, the circuit comprising: a transmitter driver circuit having a first current path for receiving a first input signal of a pair of differential input signals and a second current path for receiving a second input signal of the pair of differential input signals, the transmitter driver circuit comprising a tail current path coupled to each of the first current path and the second current path; a first current source coupled between a first reference voltage and ground and providing a current mirror of the tail current path , wherein a first current of the first current source is proportional to a tail current of the tail current path ; a first pull-up current source coupled between the first reference voltage and a first output node of the transmitter driver circuit ; and a second pull-up current source coupled between the first reference voltage and a second output node of the transmitter driver circuit ; wherein the transmitter driver circuit is coupled between a second reference voltage and ground, wherein the first reference voltage is greater than the second reference voltage. a transmitter driver circuit having a first current path for receiving a first input signal of a pair of differential input signals and a second current path for receiving a second input signal of the pair of differential input signals, the transmitter driver circuit comprising a tail current path coupled to each of the first current path and the second current path; a first current source coupled between a first reference voltage and ground and providing a current mirror of the tail current path , wherein a first current of the first current source is proportional to a tail current of the tail current path ; a first pull-up current source coupled between the first reference voltage and a first output node of the transmitter driver circuit ; and a second pull-up current source coupled between the first reference voltage and a second output node of the transmitter driver circuit ; wherein the transmitter driver circuit is coupled between a second reference voltage and ground, wherein the first reference voltage is greater than the second reference voltage.
A control device of a radio frequency power amplifier for a magnetic-resonance imaging, MRI, system, coupled to a radio frequency power amplification module , the control device comprising: an input signal processing module , configured to process an input signal into at least two signals, wherein a first signal of the at least two signals is used for signal detection, and a second signal of the at least two signals is used for signal amplification; a delay module , disposed between the input signal processing module and an adjustment module , configured to apply a preset fixed delay to the second signal; wherein the adjustment module is coupled between the delay module and the radio frequency power amplification module and configured to generate an adjusted second signal; and a signal processing and control module , configured to receive the first signal and generate a control signal, wherein the control signal controls a degree of adjustment of the second signal; characterized in that the signal processing and control module includes an adjustable delay unit configured to impose an adjustable delay on the control signal to change a time difference between the preset fixed delay and a total transmission time from a moment that the first signal is transmitted to the signal processing and control module to a moment that the control signal is transmitted to the adjustment module, such that the adjustable delay unit cooperates with the delay module to ensure that the control signal and the second signal simultaneously reach the adjustment module. an input signal processing module , configured to process an input signal into at least two signals, wherein a first signal of the at least two signals is used for signal detection, and a second signal of the at least two signals is used for signal amplification; a delay module , disposed between the input signal processing module and an adjustment module , configured to apply a preset fixed delay to the second signal; wherein the adjustment module is coupled between the delay module and the radio frequency power amplification module and configured to generate an adjusted second signal; and a signal processing and control module , configured to receive the first signal and generate a control signal, wherein the control signal controls a degree of adjustment of the second signal; characterized in that the signal processing and control module includes an adjustable delay unit configured to impose an adjustable delay on the control signal to change a time difference between the preset fixed delay and a total transmission time from a moment that the first signal is transmitted to the signal processing and control module to a moment that the control signal is transmitted to the adjustment module, such that the adjustable delay unit cooperates with the delay module to ensure that the control signal and the second signal simultaneously reach the adjustment module.
Packaging machine for packaging a pourable product in at least one container (B), comprising: - a first filling station configured for filling the at least one container (B) by means of a filling process of a first type, the first station being positioned at a first angular position around an axis (X), said axis (X) being defined by the machine ; - a second filling station configured for filling the at least one container (B) by means of a filling process of a second type which is different from the first type, said second station being positioned at a second angular position around said axis (X) and the second type being a contact filling process, said second angular position being different from said first angular position; the packaging machine being characterised by further comprising: - a control unit connected to said filling stations and configured to carry out a preliminary selection phase during which one of the filling stations is automatically selected as a function of an input (I) from a user; - a conveyor configured to carry out a transporting phase, during which, by means at least of a stepwise rotational movement of the conveyor around said axis (X) and with respect to said stations , the at least one container (B) is subsequently positioned in each of said stations ; wherein the machine is configured to carry out, as a function of said selection phase and during said transporting phase, a filling phase, during which the at least one container (B) is filled with a pourable product, said filling phase being carried out by means of the selected station and while the at least one container (B) is positioned in the selected station . - a first filling station configured for filling the at least one container (B) by means of a filling process of a first type, the first station being positioned at a first angular position around an axis (X), said axis (X) being defined by the machine ; - a second filling station configured for filling the at least one container (B) by means of a filling process of a second type which is different from the first type, said second station being positioned at a second angular position around said axis (X) and the second type being a contact filling process, said second angular position being different from said first angular position; - a control unit connected to said filling stations and configured to carry out a preliminary selection phase during which one of the filling stations is automatically selected as a function of an input (I) from a user; - a conveyor configured to carry out a transporting phase, during which, by means at least of a stepwise rotational movement of the conveyor around said axis (X) and with respect to said stations , the at least one container (B) is subsequently positioned in each of said stations ;
A method of developing a standardized protocol for ensuring a sufficient degree of diffusion of a fluid into multiple different types of tissue samples, said method comprising: (a) immersing each of a plurality of different types of tissue samples in a volume of the fluid; (b) transmitting ultrasonic waves at an intensity of 0.5 W/cm 2 or less through multiple portions of the tissue sample and monitoring movement of the fluid into each of the plurality of different types of tissue samples in each of the multiple portions by measuring time of flight (TOF) of the ultrasonic waves transmitted through each of the portions of each of the tissue samples; and (c) determining, from the changes of the measured TOF as a function of time, a decay constant for each of the portions of each of the plurality of different types of tissue samples, the decay constants being used for determining the amount of time ( τ ) required to reach a predefined end point, the end point being a predefined decay constant or a time period threshold; and (d) identifying, for each of the tissue samples, the longest τ determined in (c) in the multiple portions in said tissue sample ( τ slowest ); (e) selecting a standardized diffusion time for the standardized protocol that is at least 0.5 x τ slowest . (a) immersing each of a plurality of different types of tissue samples in a volume of the fluid; (b) transmitting ultrasonic waves at an intensity of 0.5 W/cm 2 or less through multiple portions of the tissue sample and monitoring movement of the fluid into each of the plurality of different types of tissue samples in each of the multiple portions by measuring time of flight (TOF) of the ultrasonic waves transmitted through each of the portions of each of the tissue samples; and (c) determining, from the changes of the measured TOF as a function of time, a decay constant for each of the portions of each of the plurality of different types of tissue samples, the decay constants being used for determining the amount of time ( τ ) required to reach a predefined end point, the end point being a predefined decay constant or a time period threshold; and (d) identifying, for each of the tissue samples, the longest τ determined in (c) in the multiple portions in said tissue sample ( τ slowest ); (e) selecting a standardized diffusion time for the standardized protocol that is at least 0.5 x τ slowest .