mhurhangee/patent-ind-claim-en huggingface dataset:
A clutch-less hybrid squirrel cage/permanent magnet motor comprising: a motor housing ; a stator fixed to the motor housing and producing a rotating stator magnetic field; a motor shaft rotatably connected to the motor housing and extending from at least one end of the motor housing for attachment to a load; a squirrel cage inner rotor residing coaxial rotationally fixed to the motor shaft and including: a second rotor core ; and second squirrel cage bars embedded in the second rotor core ; characterized in that it further comprises: a hybrid squirrel cage/permanent magnet outer rotor residing between the stator and the squirrel cage inner rotor and coaxial with the motor shaft and including: a first rotor core ; a number N of angularly spaced apart permanent magnets embedded in the first rotor core ; first squirrel cage bars embedded in the first rotor core ; wherein the hybrid squirrel cage/permanent magnet outer rotor is neither mechanically rotationally coupled to the motor shaft nor to the squirrel cage inner rotor during any operation, and wherein the hybrid squirrel cage/permanent magnet outer rotor is configured to rotate independently of the motor shaft , and to be magnetically rotationally coupled to the squirrel cage inner rotor at synchronous speed. a motor housing ; a stator fixed to the motor housing and producing a rotating stator magnetic field; a motor shaft rotatably connected to the motor housing and extending from at least one end of the motor housing for attachment to a load; a squirrel cage inner rotor residing coaxial rotationally fixed to the motor shaft and including: a second rotor core ; and second squirrel cage bars embedded in the second rotor core ; characterized in that it further comprises: a hybrid squirrel cage/permanent magnet outer rotor residing between the stator and the squirrel cage inner rotor and coaxial with the motor shaft and including: a first rotor core ; a number N of angularly spaced apart permanent magnets embedded in the first rotor core ; first squirrel cage bars embedded in the first rotor core ; wherein the hybrid squirrel cage/permanent magnet outer rotor is neither mechanically rotationally coupled to the motor shaft nor to the squirrel cage inner rotor during any operation, and wherein the hybrid squirrel cage/permanent magnet outer rotor is configured to rotate independently of the motor shaft , and to be magnetically rotationally coupled to the squirrel cage inner rotor at synchronous speed. a second rotor core ; and second squirrel cage bars embedded in the second rotor core ; a first rotor core ; a number N of angularly spaced apart permanent magnets embedded in the first rotor core ; first squirrel cage bars embedded in the first rotor core ; wherein the hybrid squirrel cage/permanent magnet outer rotor is neither mechanically rotationally coupled to the motor shaft nor to the squirrel cage inner rotor during any operation, and wherein the hybrid squirrel cage/permanent magnet outer rotor is configured to rotate independently of the motor shaft , and to be magnetically rotationally coupled to the squirrel cage inner rotor at synchronous speed.
An apparatus comprising: a display configured to render display content over a field of view; a glare system comprising a plurality of glare emitters and configured to render glare content in the field of view , wherein the glare system is configured to render the glare content at different positions across the field of view at different times while the display renders the display content ; and a controller configured to control the position of the glare content rendered by the glare system . a display configured to render display content over a field of view; a glare system comprising a plurality of glare emitters and configured to render glare content in the field of view , wherein the glare system is configured to render the glare content at different positions across the field of view at different times while the display renders the display content ; and a controller configured to control the position of the glare content rendered by the glare system .
A terminal comprising: a receiving section adapted to receive a downlink control channel, PDCCH; and a control section adapted to control an allocation pattern of transmission time intervals that is applied to a subframe having two slots, each slot having three transmission time intervals each having a different number of symbols, each slot having seven symbols, wherein the control section is adapted to perform a receiving process by selecting one allocation pattern from a plurality of allocation patterns depending on a number of symbols allocated to the PDCCH in one subframe, and wherein each allocation pattern has a transmission time interval formed with three symbols and two transmission time intervals each formed with two symbols. a receiving section adapted to receive a downlink control channel, PDCCH; and a control section adapted to control an allocation pattern of transmission time intervals that is applied to a subframe having two slots, each slot having three transmission time intervals each having a different number of symbols, each slot having seven symbols, wherein the control section is adapted to perform a receiving process by selecting one allocation pattern from a plurality of allocation patterns depending on a number of symbols allocated to the PDCCH in one subframe, and wherein each allocation pattern has a transmission time interval formed with three symbols and two transmission time intervals each formed with two symbols.
An air compressor which includes a main frame , a motor mounted at the main frame , a cylinder fitted with a piston body and provided at the main frame , and an air storage container , the motor capable of rotating a gear to have the piston body conduct reciprocating motion in the cylinder to produce therein compressed air which is regulated to enter an inner space of the air storage container ; wherein the cylinder defines at its top wall a plurality of exit holes, through which the compressed air can enter the inner space of the air storage container , wherein the cylinder is provided with a valve mechanism including a resilient sheet , the resilient sheet having a root and a plurality of branches extending from the root , the root of the resilient sheet defining a positioning hole such that the resilient sheet is fixed on the top wall of the cylinder by fitting the positioning hole with a positioning pin formed on the top wall of the cylinder , characterised in that the exit holes have different diameters, the valve mechanism includes a plurality of O-rings respectively placed on the top wall of the cylinder and around the exit holes of the cylinder , the branches of the resilient sheet have different coverage areas, which respectively match the dimensions of the exit holes, wherein a larger exit hole is covered by a corresponding larger branch of the resilient sheet , wherein the branches of the resilient sheet urge the O-rings against the top wall of the cylinder to seal the exit holes.
A cyanine dye for use in binding to DNA, selected from the group of cyanine dyes being characterized by the general formula ( I ), wherein - Z 1 is S and Z 2 is N; and - R 1 is selected from the list comprising 5-azidopentyl, 5-(4-(aminomethyl)-1H-1,2,3-triazol-1-yl)pentyl or 5-ammoniopentyl; and - R 2 is ethyl and; - R 5 to R 15 are each a hydrogen atom; and - X - is selected from the list comprising halogenate, sulfate, triflate, trifluoro acetate, difluoro acetate or fluoro acetate; and - n is 3; and - m is 1. - Z 1 is S and Z 2 is N; and - R 1 is selected from the list comprising 5-azidopentyl, 5-(4-(aminomethyl)-1H-1,2,3-triazol-1-yl)pentyl or 5-ammoniopentyl; and - R 2 is ethyl and; - R 5 to R 15 are each a hydrogen atom; and - X - is selected from the list comprising halogenate, sulfate, triflate, trifluoro acetate, difluoro acetate or fluoro acetate; and - n is 3; and - m is 1.
A method performed by a first network node for steering data traffic in a communication with a User Equipment, UE, in a wireless communications network , the method comprising: sending a request to a second network node , which request requests to set up an interface between the first network node hosting a first cell and the second network node which is hosting a second cell , and which second cell is a neighbour to the first cell , receiving a message from the second network node over the requested set up interface, which message comprises indications indicating that: - a third cell provided by a third network node is a neighbour to the second cell , - the second cell is supporting carrier aggregation towards the third cell , - the third cell is supporting carrier aggregation towards the second cell , determining whether or not to handover the UE from the first cell to the second cell for carrier aggregation towards the third cell based on the indications in the received message and based on the available bandwidth in the respective first cell , second cell and third cell , wherein the determining whether or not to handover the UE further comprises determining a Primary Cell, PCell, for the UE in the communication based on the indications in the received message. and steering the data traffic in the communication with the UE according to the determining of whether or not to handover the UE to the second network node . sending a request to a second network node , which request requests to set up an interface between the first network node hosting a first cell and the second network node which is hosting a second cell , and which second cell is a neighbour to the first cell , receiving a message from the second network node over the requested set up interface, which message comprises indications indicating that: - a third cell provided by a third network node is a neighbour to the second cell , - the second cell is supporting carrier aggregation towards the third cell , - the third cell is supporting carrier aggregation towards the second cell , - a third cell provided by a third network node is a neighbour to the second cell , - the second cell is supporting carrier aggregation towards the third cell , - the third cell is supporting carrier aggregation towards the second cell , determining whether or not to handover the UE from the first cell to the second cell for carrier aggregation towards the third cell based on the indications in the received message and based on the available bandwidth in the respective first cell , second cell and third cell , wherein the determining whether or not to handover the UE further comprises determining a Primary Cell, PCell, for the UE in the communication based on the indications in the received message. and steering the data traffic in the communication with the UE according to the determining of whether or not to handover the UE to the second network node .
Device for limiting the displacement of at least one of two or more drives of a shading device which has the two or more drives , of which at least one drives a shading device, wherein the two drives drive elements or degrees of freedom of elements, the displacements of which overlap, and means for detecting and limiting the displacement of respectively at least one of the drives are provided which prevent an adjustment of an element into a position in which a respective other element is already located, characterised in that at least one of the drives has an internal position detection device and a direct communication connection between the drives is provided which transmits wirelessly the detected position to the respectively other drive , wherein the communication connection is constructed wirelessly as a radio or infrared connection or as a data connection via power supply lines which are present anyway (Powerline Communication PLC), wherein an evaluation and control unit assigned to this drive limits the displacement of this drive such that a collision with the respectively other element is prevented.
Voltage converter for direct current with a circuit bridge, comprising a first, second, third and fourth power switch (S 1 , S 2 , S 3 , S 4 ), which each have a control terminal (G 1 , G 2 , G 3 , G 4 ) and in each case a load path running between two power terminals (L 1 , L 1' ; L 2 , L 2' ; L 3 , L 3' ; L 4 , L 4' ), the load paths of the first and second circuit breakers (S 1 , S 2 ) being connected at a first switching node (K 1 ) and the load paths of the third and fourth circuit breakers (S 3 , S 4 ) being connected to a second switching node (K 2 ) and each being connected in series between the terminals of a DC input voltage (U ein ), and having a transformer (TR) whose primary winding (PW) is connected to the first and second switching nodes (K 1 , K 2 ), and whose secondary winding (SW) has a full-bridge rectifier arrangement (GL) connected downstream, which is formed by a parallel circuit of a first (GL 1 ) and second rectifier branch (GL 2 ), each of the two rectifier branches consisting of a series circuit of two diodes (D1, D2 or D3, D4), characterized in that a single capacitor (C K ) is connected asymmetrically to the second rectifier branch (GL 2 ) of the full-bridge rectifier arrangement (GL), in that the capacitor (C K ) connects the middle node of the second rectifier branch (GL 2 ) either to the negative or positive output voltage of the full-bridge rectifier arrangement (GL), and that the second rectifier branch (GL 2 ) consists of simple diodes as slow-switching electronic switches while the first rectifier branch (GL 1 ) consists of ultrafast or Schottky diodes (SD) as fast-switching electronic switches. a single capacitor (C K ) is connected asymmetrically to the second rectifier branch (GL 2 ) of the full-bridge rectifier arrangement (GL), in that the capacitor (C K ) connects the middle node of the second rectifier branch (GL 2 ) either to the negative or positive output voltage of the full-bridge rectifier arrangement (GL), and that the second rectifier branch (GL 2 ) consists of simple diodes as slow-switching electronic switches while the first rectifier branch (GL 1 ) consists of ultrafast or Schottky diodes (SD) as fast-switching electronic switches.
A terminal , comprising: a reception section configured to receive information corresponding to a mapping method of mapping a demodulation reference signal via downlink control information and a signal of a downlink shared channel; and a control section configured to determine one mapping method of a first mapping method and a second mapping method based on the received information and to control reception of the demodulation reference signal based on the determined one mapping method of the first mapping method and the second mapping method, wherein the first mapping method is a method in which the demodulation reference signal is mapped to a fixed symbol within a slot of the downlink shared channel and the second mapping method is a method in which the demodulation reference signal is mapped to a top symbol of symbols for which the downlink shared channel is scheduled; and wherein the received information indicates that the second mapping method is to be used in a case where the terminal is to be configured to enable lower latency communication. a reception section configured to receive information corresponding to a mapping method of mapping a demodulation reference signal via downlink control information and a signal of a downlink shared channel; and a control section configured to determine one mapping method of a first mapping method and a second mapping method based on the received information and to control reception of the demodulation reference signal based on the determined one mapping method of the first mapping method and the second mapping method, wherein the first mapping method is a method in which the demodulation reference signal is mapped to a fixed symbol within a slot of the downlink shared channel and the second mapping method is a method in which the demodulation reference signal is mapped to a top symbol of symbols for which the downlink shared channel is scheduled; and wherein the received information indicates that the second mapping method is to be used in a case where the terminal is to be configured to enable lower latency communication.
A complex compound of formula (I) wherein R 1 is selected from H, F, R 2 , OR 2 , OSi(R 3 R 4 R 5 ), and O-X-Li + ; R 2 is selected from C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 5 -C 7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more substituents selected from OSi(CH 3 ) 3 and F; R 3 , R 4 , and R 5 are independently from each other selected from H, F, R 2 , OR 2 , and OSi(R 6 ) 3 ; R 6 is independently at each occurrence selected from H, F, R 2 and OR 2 ; X is selected from Y 1 (R 7 ) 4-b and Y 2 (R 8 ) 6-b ; Y 1 is B or Al; Y 2 is P, Sb or As; in case X is Y 1 b is an integer from 1 to 4; in case X is Y 2 b is an integer from 1 to 6; R 7 and R 8 are independently at each occurrence selected from F, R 9 and OR 9 ; R 9 is selected from C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 5 -C 7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more F; wherein one pair of R 7 or one or two pairs of R 8 may be combined and jointly be forming a cycle with Y 1 or Y 2 , respectively; is a bidentate radical derived from a 1,2-, 1,3- or 1,4-diol, from a 1,2-, 1,3- or 1,4-dicarboxylic acid or from a 1,2-, 1,3- or 1,4-hydroxycarboxylic acid; and wherein R 1 may be combined with one of R 7 or R 8 , respectively, and jointly forming a cycle. R 1 is selected from H, F, R 2 , OR 2 , OSi(R 3 R 4 R 5 ), and O-X-Li + ; R 2 is selected from C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 5 -C 7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more substituents selected from OSi(CH 3 ) 3 and F; R 3 , R 4 , and R 5 are independently from each other selected from H, F, R 2 , OR 2 , and OSi(R 6 ) 3 ; R 6 is independently at each occurrence selected from H, F, R 2 and OR 2 ; X is selected from Y 1 (R 7 ) 4-b and Y 2 (R 8 ) 6-b ; Y 1 is B or Al; Y 2 is P, Sb or As; in case X is Y 1 b is an integer from 1 to 4; in case X is Y 2 b is an integer from 1 to 6; R 7 and R 8 are independently at each occurrence selected from F, R 9 and OR 9 ; R 9 is selected from C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 5 -C 7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more F; wherein one pair of R 7 or one or two pairs of R 8 may be combined and jointly be forming a cycle with Y 1 or Y 2 , respectively; is a bidentate radical derived from a 1,2-, 1,3- or 1,4-diol, from a 1,2-, 1,3- or 1,4-dicarboxylic acid or from a 1,2-, 1,3- or 1,4-hydroxycarboxylic acid; and wherein R 1 may be combined with one of R 7 or R 8 , respectively, and jointly forming a cycle.
Method for producing urethane (meth)acrylate resins, in which a dianhydrohexitol compound is converted with a diisocyanate in the presence of a monomeric radically co-polymerisable compound as solvent and the product is converted with a hydroxy-substituted (meth)acrylate.
A computer-implemented method of detecting donning and doffing of an electronic device comprising: generating a capacitance signal based on a capacitance measured by a capacitive sensor within the electronic device; generating an average capacitance signal by averaging the capacitance signal over a period of time; generating an intermediate signal comprising a difference between the capacitance signal and the average capacitance signal; generating at least one of: a don signal and a doff signal, wherein the don signal is generated subsequent to the electronic device changing state from a doffed state to a donned state, and the doff signal is generated subsequent to the electronic device changing state from a donned state to a doffed state, and wherein the don signal is based on a comparison of the intermediate signal to a don threshold and the doff signal is based on a comparison of the intermediate signal to a doff threshold ; and setting the average capacitance signal to be equal to the capacitance signal when a don or doff signal is generated. generating a capacitance signal based on a capacitance measured by a capacitive sensor within the electronic device; generating an average capacitance signal by averaging the capacitance signal over a period of time; generating an intermediate signal comprising a difference between the capacitance signal and the average capacitance signal; generating at least one of: a don signal and a doff signal, wherein the don signal is generated subsequent to the electronic device changing state from a doffed state to a donned state, and the doff signal is generated subsequent to the electronic device changing state from a donned state to a doffed state, and wherein the don signal is based on a comparison of the intermediate signal to a don threshold and the doff signal is based on a comparison of the intermediate signal to a doff threshold ; and setting the average capacitance signal to be equal to the capacitance signal when a don or doff signal is generated.
A method of controlling sensor use on an electronic device , the electronic device having at least one sensor for estimating or calculating an orientation of the electronic device , a type of the at least one sensor comprising a gyroscope , an accelerometer , and/or a magnetometer , the at least one sensor comprising a first sensor defining at least two first sensor axes (Gx, Ax, Mx; Gy, Ay, My; Gz, Az, Mz), the method comprising: detecting a first sensor reading; determining the orientation of the electronic device , based at least on the detected first sensor reading; and disabling the detection of the first sensor reading in respect of an identified first sensor axis (Gx, Ax, Mx) when the first sensor reading in respect of the identified first sensor axis (Gx, Ax, Mx) has not substantially changed for at least a predetermined amount of time, the method being characterised in that disabling the detection of the first sensor reading in respect of an identified first sensor axis (Gx, Ax, Mx) comprises stopping collecting samples in respect of the identified first sensor axis (Gx, Ax, Mx) while keeping collecting first sensor axes (Gy, Ay, My; Gz, Az, Mz) other than the identified first sensor axis (Gx, Ax, Mx) enabled. detecting a first sensor reading; determining the orientation of the electronic device , based at least on the detected first sensor reading; and disabling the detection of the first sensor reading in respect of an identified first sensor axis (Gx, Ax, Mx) when the first sensor reading in respect of the identified first sensor axis (Gx, Ax, Mx) has not substantially changed for at least a predetermined amount of time, the method being characterised in that disabling the detection of the first sensor reading in respect of an identified first sensor axis (Gx, Ax, Mx) comprises stopping collecting samples in respect of the identified first sensor axis (Gx, Ax, Mx) while keeping collecting first sensor axes (Gy, Ay, My; Gz, Az, Mz) other than the identified first sensor axis (Gx, Ax, Mx) enabled.
Method for controlling a particle-scattering system of a rail vehicle by means of a control device , said method having the steps: the control device receives particle data that represent an actual value of a quantity of particles to be delivered by the particle-scattering system , such that the particle data relate to or indicate a mass flow of particles to be delivered and/or a speed of the particles to be delivered, and the control device carries out a control and/or regulation of the particle-scattering system on the basis of the particle data. the control device receives particle data that represent an actual value of a quantity of particles to be delivered by the particle-scattering system , such that the particle data relate to or indicate a mass flow of particles to be delivered and/or a speed of the particles to be delivered, and the control device carries out a control and/or regulation of the particle-scattering system on the basis of the particle data.