mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device, comprising: a processor; and a communication circuit configured to communicate with a base station via a licensed band and an unlicensed band, wherein the processor is configured to transmit, using the communication circuit, a first transport block to the base station through the licensed band and transmit a second transport block to the base station through the unlicensed band, wherein in a first transmission mode, the electronic device is adapted to include in the the first transport block first transmission data and to include in the second transport block second transmission data different from the first transmission data, and wherein in a second transmission mode, the electronic device is adapted to include in the first transport block third transmission data with a first redundancy version and to include in the second transport block the third transmission data with a second redundancy version different from the first redundancy version. a processor; and a communication circuit configured to communicate with a base station via a licensed band and an unlicensed band, wherein the processor is configured to transmit, using the communication circuit, a first transport block to the base station through the licensed band and transmit a second transport block to the base station through the unlicensed band, wherein in a first transmission mode, the electronic device is adapted to include in the the first transport block first transmission data and to include in the second transport block second transmission data different from the first transmission data, and wherein in a second transmission mode, the electronic device is adapted to include in the first transport block third transmission data with a first redundancy version and to include in the second transport block the third transmission data with a second redundancy version different from the first redundancy version.
A bone plate system , comprising: a bone plate with a top surface and a bottom surface and a first end and a second end , the bone plate comprising; a base portion disposed between the first end and the second end ; and at least one opening extending away from the top surface of the bone plate ; at least one deformable member received within the at least one opening of the bone plate , wherein the at least one deformable member comprises: a first portion having a first opening ; a second portion having a second opening coupled to and extending away from the first portion ; and wherein the first opening of one deformable member of the at least one deformable member comprises: two first openings , wherein one first opening is positioned at the first end of the base portion , and wherein a second first opening is positioned at the second end of the base portion ; and at least one coupling member engaging the at least one deformable member to couple the at least one coupling member and the at least one deformable member to the bone plate . a bone plate with a top surface and a bottom surface and a first end and a second end , the bone plate comprising; a base portion disposed between the first end and the second end ; and at least one opening extending away from the top surface of the bone plate ; a base portion disposed between the first end and the second end ; and at least one opening extending away from the top surface of the bone plate ; at least one deformable member received within the at least one opening of the bone plate , wherein the at least one deformable member comprises: a first portion having a first opening ; a second portion having a second opening coupled to and extending away from the first portion ; and wherein the first opening of one deformable member of the at least one deformable member comprises: two first openings , wherein one first opening is positioned at the first end of the base portion , and wherein a second first opening is positioned at the second end of the base portion ; and a first portion having a first opening ; a second portion having a second opening coupled to and extending away from the first portion ; and wherein the first opening of one deformable member of the at least one deformable member comprises: two first openings , wherein one first opening is positioned at the first end of the base portion , and wherein a second first opening is positioned at the second end of the base portion ; and at least one coupling member engaging the at least one deformable member to couple the at least one coupling member and the at least one deformable member to the bone plate .
An optical transmission apparatus(I_I) comprising: a signal converter configured to convert first transmission data (DS1, DS2) into a first electrical signal (DPI) and a second electrical signal (DP2); a first transmission unit (11_1) configured to convert the first electrical signal (DPI) into a first optical transmission signal (21_1) corresponding to a first sub-carrier; a second transmission unit (11_2) configured to convert the second electrical signal (DPI) into a second optical transmission signal (21_2) corresponding to a second sub-carrier different from the first sub-carrier; and an output unit configured to output the first optical transmission signal (21_1) and the second optical transmission signal (21_2) to a first optical reception apparatus (2_1) via a first path , , characterized in that the signal converter is configured to convert second transmission data (DS1, DS2) into the first electric signal (DPI) and convert third transmission data (DS1, DS2) into the second electric signal (DP2), and the output unit is configured to output the first optical transmission signal (21_1) corresponding to the second transmission data to the first optical reception apparatus via the first path and is configured to output the second optical transmission signal (21_2) corresponding to the third transmission data to a second optical reception apparatus via the second path. a signal converter configured to convert first transmission data (DS1, DS2) into a first electrical signal (DPI) and a second electrical signal (DP2); a first transmission unit (11_1) configured to convert the first electrical signal (DPI) into a first optical transmission signal (21_1) corresponding to a first sub-carrier; a second transmission unit (11_2) configured to convert the second electrical signal (DPI) into a second optical transmission signal (21_2) corresponding to a second sub-carrier different from the first sub-carrier; and an output unit configured to output the first optical transmission signal (21_1) and the second optical transmission signal (21_2) to a first optical reception apparatus (2_1) via a first path , , characterized in that the signal converter is configured to convert second transmission data (DS1, DS2) into the first electric signal (DPI) and convert third transmission data (DS1, DS2) into the second electric signal (DP2), and the output unit is configured to output the first optical transmission signal (21_1) corresponding to the second transmission data to the first optical reception apparatus via the first path and is configured to output the second optical transmission signal (21_2) corresponding to the third transmission data to a second optical reception apparatus via the second path.
A computer-implemented method for determining a flow rate of fluid flow at a target time through a pump, in particular a centrifugal pump, without the need for measuring any hydraulic parameters of the fluid flow, the pump being driven by a pump motor, the method comprising: - receiving at least one set of previous parameter values including a first previous parameter value indicative of a first operational parameter at a previous time, earlier than the target time, and a second previous parameter value indicative of a second operational parameter at the previous time; - receiving a current set of parameter values including a first current parameter value indicative of the first operational parameter at the target time and a second current parameter value indicative of the second operational parameter at the target time; - computing the flow rate of fluid flow at the target time from the current set of parameter values and from the at least one set of previous parameter values, wherein the computing of the flow rate of fluid flow at the target time is based on a computational model that relates the current and previous parameter values of the respective operational parameters with the flow rate at the target time, and wherein the computational model comprises a machine learning model. - receiving at least one set of previous parameter values including a first previous parameter value indicative of a first operational parameter at a previous time, earlier than the target time, and a second previous parameter value indicative of a second operational parameter at the previous time; - receiving a current set of parameter values including a first current parameter value indicative of the first operational parameter at the target time and a second current parameter value indicative of the second operational parameter at the target time; - computing the flow rate of fluid flow at the target time from the current set of parameter values and from the at least one set of previous parameter values, wherein the computing of the flow rate of fluid flow at the target time is based on a computational model that relates the current and previous parameter values of the respective operational parameters with the flow rate at the target time, and wherein the computational model comprises a machine learning model.
An absolute position encoder , comprising: a scale with a multi-layer reflective/transmissive structure, wherein each layer includes a matrix having rows, such that each row of the matrix forms a coded pattern and corresponds to a single-row pattern used to form a measurement; an emitter of a single THz transceiver to emit a terahertz (THz) waveform to the scale according to a THz compressed scanning scheme while in relative motion with the scale along the rows; a receiver of the single THz transceiver to measure amplitudes of the THz waveform reflected from rows of each layer of the multi-layer reflective/transmissive structure of the scale; a computer hardware memory to store data including patterns corresponding to predetermined positions of the emitter or a set of training amplitudes of reflected/transmitted THz waveforms, based on patterns of the layers from the scale; a processor to determine a position of the emitter from the measurements of the amplitudes received by the receiver based on the stored data; and an output interface to render the absolute position of the emitter. a scale with a multi-layer reflective/transmissive structure, wherein each layer includes a matrix having rows, such that each row of the matrix forms a coded pattern and corresponds to a single-row pattern used to form a measurement; an emitter of a single THz transceiver to emit a terahertz (THz) waveform to the scale according to a THz compressed scanning scheme while in relative motion with the scale along the rows; a receiver of the single THz transceiver to measure amplitudes of the THz waveform reflected from rows of each layer of the multi-layer reflective/transmissive structure of the scale; a computer hardware memory to store data including patterns corresponding to predetermined positions of the emitter or a set of training amplitudes of reflected/transmitted THz waveforms, based on patterns of the layers from the scale; a processor to determine a position of the emitter from the measurements of the amplitudes received by the receiver based on the stored data; and an output interface to render the absolute position of the emitter.
A hybrid alternating current (AC) and direct current (DC) distribution system comprising: a doubly fed induction generator (DFIG) (204; 504) comprising a rotor and a stator , said DFIG configured to generate a first AC power at said rotor and a second AC power at said stator ; a DC distribution bus configured to be coupled to a first load ; an AC-to-DC converter (218; 506) coupled to said rotor and further coupled to said DC distribution bus at a first node (228; 510), said AC-to-DC converter (218; 506) configured to convert the first AC power to a first DC power at the first node (228; 510) for delivery through said DC distribution bus ; an AC distribution bus configured to be coupled to a second load ; and a DC-to-AC converter (220; 508) coupled between the first node (228; 510) and a second node (230; 512), the second node (230; 512) coupled to said stator and said AC distribution bus , said DC-to-AC converter (220; 508) configured to convert the first DC power to the second AC power for delivery to said stator and through said AC distribution bus . a doubly fed induction generator (DFIG) (204; 504) comprising a rotor and a stator , said DFIG configured to generate a first AC power at said rotor and a second AC power at said stator ; a DC distribution bus configured to be coupled to a first load ; an AC-to-DC converter (218; 506) coupled to said rotor and further coupled to said DC distribution bus at a first node (228; 510), said AC-to-DC converter (218; 506) configured to convert the first AC power to a first DC power at the first node (228; 510) for delivery through said DC distribution bus ; an AC distribution bus configured to be coupled to a second load ; and a DC-to-AC converter (220; 508) coupled between the first node (228; 510) and a second node (230; 512), the second node (230; 512) coupled to said stator and said AC distribution bus , said DC-to-AC converter (220; 508) configured to convert the first DC power to the second AC power for delivery to said stator and through said AC distribution bus .
Cooling device for battery cells assembled to form a module, comprising a base body and an insert which has receptacles for an end portion of the battery cells , excepting the cell head , wherein the insert together with the base body delimits a flow channel for a temperature-control fluid, characterised in that the receptacles form a fluid-tight membrane which encloses the end portion of the battery cells , is designed to be deformable for tolerance compensation of the individual battery cells and, when the flow channel is filled, rests against the cell bottom .
A multilayer filter of a medical sterilization container or a medical sterile packaging, each consisting of a core layer or core sheet made of an aramid fabric as puncture protection, which is fully enclosed by at least one first outer layer or outer sheet made of filter material on one side thereof and by at least one second outer layer or outer sheet made of filter material on the other side thereof.
An ear protection system for a medical imaging device, the ear protection system comprising: an ear protection device , adapted to be fitted around or in the ears of a patient (P) to be imaged, and at least comprising a first communication interface and at least one sensor device adapted to determine a measurement of noise passing through the ear protection device towards the ears of the patient, a controllable signal emitter , adapted to output a proxy signal representing an expected imaging device noise and to be measured by the at least one sensor device , a patient assistance device , adapted to assist the patient to fit the ear protection device by using one or more of a representation, communication and/or user interaction technique, and at least comprising a second communication interface, wherein, during a preparation phase of the patient preceding an imaging phase using the medical imaging device, the ear protection device and the patient assistance device are adapted to be communicatively connected to each other via the first and second communication interface, and the patient assistance device is adapted to generate and provide assisting instructions to the patient depending on an evaluation of the proxy signal and the measurement of noise passing through the ear protection device determined by the sensor device . an ear protection device , adapted to be fitted around or in the ears of a patient (P) to be imaged, and at least comprising a first communication interface and at least one sensor device adapted to determine a measurement of noise passing through the ear protection device towards the ears of the patient, a controllable signal emitter , adapted to output a proxy signal representing an expected imaging device noise and to be measured by the at least one sensor device , a patient assistance device , adapted to assist the patient to fit the ear protection device by using one or more of a representation, communication and/or user interaction technique, and at least comprising a second communication interface, wherein, during a preparation phase of the patient preceding an imaging phase using the medical imaging device, the ear protection device and the patient assistance device are adapted to be communicatively connected to each other via the first and second communication interface, and the patient assistance device is adapted to generate and provide assisting instructions to the patient depending on an evaluation of the proxy signal and the measurement of noise passing through the ear protection device determined by the sensor device .
Method for preparing food in a cooking chamber of a cooking appliance , in which the food is arranged in the cooking chamber and in which at least a first food zone , which does not apply to the entire food, is determined, wherein the determined food zone is illuminated with a lighting apparatus of the cooking appliance , so that the determined food zone is indicated in a visually noticeable manner on the food , characterised in that the at least one food zone is predetermined by a user by means of a contactless gesture, wherein the gesture is detected by a detection unit of the cooking appliance , and the food zone to be generated is identified by evaluating the gesture, wherein a shadow image is generated on a reference surface by means of the gesture and the shadow image is detected by the detection unit of the cooking appliance and the food zone to be is generated is identified by evaluating the shadow image.
Multi-rotor aerial vehicle (1, 1', 1", 1''', 1'''', 1''''', 1'''''') comprising, at least a first, second and third rotor , each rotatable by a dedicated first second and third hydraulic motor , at least one power unit , at least a first, second and third hydraulic pump dedicated to the respective first, second and third hydraulic motor , wherein each hydraulic pump is arranged to provide pressurized fluid to each hydraulic motor for powering the hydraulic motor and thereby rotating the respective rotor , a control unit for controlling the operation of the multi-rotor aerial vehicle (1, 1', 1", 1''', 1'''', 1''''', 1''''''), wherein the control of the multi-rotor aerial vehicle (1, 1', 1", 1''', 1'''', 1''''', 1'''''') is arranged to be performed by altering the flow of pressurized fluid distributed to each respective hydraulic motor , wherein the hydraulic pumps are arranged on a single output shaft of the power unit , and the flow of pressurized fluid provided to each hydraulic motor is individually controllable by means of at least one control valve configured to control the flow of pressurized fluid from each hydraulic pump to its dedicated hydraulic motor .
An electrolyte solution for a non-aqueous electrolyte battery, comprising at least a non-aqueous solvent, a solute, at least one silane compound represented by the following general formula as a first compound, and at least one compound selected from the group consisting of fluorine-containing compounds represented by the following general formulae to as a second compound, wherein the concentration of said solute is in the range between 0.5 mol/L and 2.5 mol/L: Si(R 1 ) a (R 2 ) 4-a wherein, in general formula , R 1 each independently represents a group having a carbon-carbon unsaturated bond, R 2 each independently represents a linear or branched C 1-10 alkyl group, which may optionally contain a fluorine atom and/or an oxygen atom, wherein in the case that R 2 contains an oxygen, the oxygen atom is not bonded to the silicon atom, and a is 2 to 4; in general formulae to and to , R 3 to R 6 each independently represents a fluorine atom or an organic group selected from among a linear or branched C 1-10 alkoxy group, a C 2-10 alkenyloxy group, a C 2-10 alkynyloxy group, a C 3-10 cycloalkoxy group, a C 3-10 cycloalkenyloxy group and a C 6-10 aryloxy group, wherein a fluorine atom, an oxygen atom, or an unsaturated bond may optionally be present in the organic group; in general formulae , , , and , X 1 and X 2 each independently represents a fluorine atom or an organic group selected from a linear or branched C 1-10 alkyl group, a C 2-10 alkenyl group, a C 2-10 alkynyl group, a C 3-10 cycloalkyl group, a C 3-10 cycloalkenyl group, a C 6-10 aryl group, a linear or branched C 1-10 alkoxy group, a C 2-10 alkenyloxy group, a C 2-10 alkynyloxy group, a C 3-10 cycloalkoxy group, a C 3-10 cycloalkenyloxy group and a C 6-10 aryloxy group, wherein a fluorine atom, an oxygen atom, or an unsaturated bond may optionally be present in the organic group as well; wherein general formulae to have at least one P-F bond and/or at least one S-F bond; and wherein M 1 and M 2 each independently represents a proton, a metal cation or an onium cation.
A rotary valve comprising: a valve shaft coupled to a rotary valve element, the valve shaft defining an axis (X) and being rotatable thereabout; a rotary position sensor ; a coupling rotationally coupling the valve shaft and the sensor ; a wrenching arm rotationally coupled to the valve shaft , the wrenching arm extending radially outwardly of the axis (X) for attachment of a wrenching tool thereto, wherein the coupling is axially between the rotary position sensor and the wrenching arm ; and a valve housing, the shaft extending axially through the valve housing, characterised in that : the valve housing comprises a socket formed therein, and the rotary valve further comprises a stop element for selective engagement with the socket , wherein the socket is positioned such that the wrenching arm may engage the stop element to prevent rotation of the wrenching arm around the axis (X). a valve shaft coupled to a rotary valve element, the valve shaft defining an axis (X) and being rotatable thereabout; a rotary position sensor ; a coupling rotationally coupling the valve shaft and the sensor ; a wrenching arm rotationally coupled to the valve shaft , the wrenching arm extending radially outwardly of the axis (X) for attachment of a wrenching tool thereto, wherein the coupling is axially between the rotary position sensor and the wrenching arm ; and a valve housing, the shaft extending axially through the valve housing, characterised in that : the valve housing comprises a socket formed therein, and the rotary valve further comprises a stop element for selective engagement with the socket , wherein the socket is positioned such that the wrenching arm may engage the stop element to prevent rotation of the wrenching arm around the axis (X).