mhurhangee/patent-ind-claim-en huggingface dataset:
A Codebook Subset Restriction, CSR, bitmap transmission method of an evolved Node B, eNB, in transmission mode 9 as introduced with 3GPP LTE Release 10 for communication with 8 antenna ports in a wireless communication system, the method comprising: generating a CSR bitmap, the CSR bitmap including at least one bit corresponding to restricted precoding matrix indicators, PMIs, and rank indicators that are not allowed to be reported by a user equipment and at least one bit indicating unrestricted PMIs that are allowed to be reported by the user equipment; transmitting the CSR bitmap to the user equipment; and wherein the CSR bitmap includes 53 bits corresponding to a first codebook and 56 bits corresponding to a second codebook, the second codebook comprising one precoding matrix for each of ranks 5 to 8, with a a f ( v )+ i 1 -th bit corresponding to a codebook index i 1 and a layer v and a a 53+ f ( v )+ i 2 -th bit corresponding to a codebook index i 2 and the layer v , and wherein the codebook indices i1 and i2 indicate a precoding index in the first and second codebook, respectively, and wherein the f ( v ) and the f ( v ) are defined as the following equations, respectively: f 1 v = { 0 for v = 1 16 for v = 2 32 for v = 3 36 for v = 4 40 for v = 5 44 for v = 6 48 for v = 7 52 for v = 8 , and f 2 v = { 0 for v = 1 16 for v = 2 32 for v = 3 48 for v = 4 . generating a CSR bitmap, the CSR bitmap including at least one bit corresponding to restricted precoding matrix indicators, PMIs, and rank indicators that are not allowed to be reported by a user equipment and at least one bit indicating unrestricted PMIs that are allowed to be reported by the user equipment; transmitting the CSR bitmap to the user equipment; and wherein the CSR bitmap includes 53 bits corresponding to a first codebook and 56 bits corresponding to a second codebook, the second codebook comprising one precoding matrix for each of ranks 5 to 8, with a a f ( v )+ i 1 -th bit corresponding to a codebook index i 1 and a layer v and a a 53+ f ( v )+ i 2 -th bit corresponding to a codebook index i 2 and the layer v , and wherein the codebook indices i1 and i2 indicate a precoding index in the first and second codebook, respectively, and wherein the f ( v ) and the f ( v ) are defined as the following equations, respectively: f 1 v = { 0 for v = 1 16 for v = 2 32 for v = 3 36 for v = 4 40 for v = 5 44 for v = 6 48 for v = 7 52 for v = 8 , and f 2 v = { 0 for v = 1 16 for v = 2 32 for v = 3 48 for v = 4 .
A membrane electrode assembly comprising: an electrode consisting of at least one compound selected from the group consisting of lanthanum strontium cobalt complex oxide, lanthanum strontium cobalt ferrite complex oxide, lanthanum strontium ferrite complex oxide, and lanthanum nickel ferrite complex oxide or consisting of a composite of the compound and an electrolyte material; characterized by further comprising a first solid electrolyte membrane represented by a composition formula of BaZr 1-x In x O 3-δ (0 < x < 1); and a second solid electrolyte membrane having a composition different from the composition of the first solid electrolyte membrane, wherein the first solid electrolyte membrane has a first surface in contact with the electrode and a second surface, which is a surface opposite to the first surface, in contact with the second solid electrolyte membrane , and wherein the electrode , the first solid electrolyte membrane , and the second solid electrolyte membrane are stacked in this order. an electrode consisting of at least one compound selected from the group consisting of lanthanum strontium cobalt complex oxide, lanthanum strontium cobalt ferrite complex oxide, lanthanum strontium ferrite complex oxide, and lanthanum nickel ferrite complex oxide or consisting of a composite of the compound and an electrolyte material; characterized by further comprising a first solid electrolyte membrane represented by a composition formula of BaZr 1-x In x O 3-δ (0 < x < 1); and a second solid electrolyte membrane having a composition different from the composition of the first solid electrolyte membrane, wherein the first solid electrolyte membrane has a first surface in contact with the electrode and a second surface, which is a surface opposite to the first surface, in contact with the second solid electrolyte membrane , and wherein the electrode , the first solid electrolyte membrane , and the second solid electrolyte membrane are stacked in this order.
A thermographic temperature sensor , comprising: a probe comprising a housing , the housing comprising a sheath , and the probe further comprising a light pipe disposed within the sheath , wherein: the light pipe comprises a thermographic phosphor configured to phosphoresce in response to absorbing light, wherein the phosphorescence by the thermographic phosphor is representative of a temperature of a fluid in contact with the probe ; the sensor being characterised in that the sheath comprises a plurality of holes disposed from its outer surface to its inner surface, the holes being spaced apart along a longitudinal axis and a circumferential direction of the sheath ; and the sensor further comprising a plurality of supports configured to secure the light pipe to the sheath , and an air gap disposed between an outer surface of the light pipe and the inner surface of the sheath , wherein the air gap circumferentially surrounds at least a portion of the light pipe , wherein each support of the plurality of supports is disposed within a hole of the plurality of holes of the sheath and radially extends between the outer surface of the sheath and the light pipe . a probe comprising a housing , the housing comprising a sheath , and the probe further comprising a light pipe disposed within the sheath , wherein: the light pipe comprises a thermographic phosphor configured to phosphoresce in response to absorbing light, wherein the phosphorescence by the thermographic phosphor is representative of a temperature of a fluid in contact with the probe ; the sensor being characterised in that the sheath comprises a plurality of holes disposed from its outer surface to its inner surface, the holes being spaced apart along a longitudinal axis and a circumferential direction of the sheath ; and the sensor further comprising the light pipe comprises a thermographic phosphor configured to phosphoresce in response to absorbing light, wherein the phosphorescence by the thermographic phosphor is representative of a temperature of a fluid in contact with the probe ; the sensor being characterised in that the sheath comprises a plurality of holes disposed from its outer surface to its inner surface, the holes being spaced apart along a longitudinal axis and a circumferential direction of the sheath ; and the sensor further comprising a plurality of supports configured to secure the light pipe to the sheath , and an air gap disposed between an outer surface of the light pipe and the inner surface of the sheath , wherein the air gap circumferentially surrounds at least a portion of the light pipe , wherein each support of the plurality of supports is disposed within a hole of the plurality of holes of the sheath and radially extends between the outer surface of the sheath and the light pipe .
Piezoelectric device having at least one piezoelectric element which has a support plane aligned with a force introduction element , wherein expansion differences occur between the piezoelectric element and the force introduction element when the piezoelectric device is thermally loaded in the support plane , wherein at least one transition element is arranged between the piezoelectric element and the force introduction element , characterised in that the transition element has a modulus of elasticity whose modulus of elasticity components C 22 , C 33 in the support plane are smaller in each case than the respective modulus of elasticity components of the piezoelectric element .
A method in a User Equipment configured to transmit data to a base station in subframes of a Time Division Duplex system occurring at defined subframe intervals, wherein a predetermined number of symbol intervals is used in a normal subframe, the method being characterized in comprising: receiving, from the base station, a grant message indicating that the User Equipment is scheduled in a transmit subframe, the grant message containing information indicating that less symbol intervals will be utilized in the transmit subframe than in the normal subframe; and, in response to said information indicating that less symbol intervals will be utilized, transmitting the transmit subframe in accordance with the grant message by not transmitting in one or more symbol intervals at the beginning of the subframe interval for the transmit subframe and transmitting in symbol intervals of the remainder of the subframe interval. receiving, from the base station, a grant message indicating that the User Equipment is scheduled in a transmit subframe, the grant message containing information indicating that less symbol intervals will be utilized in the transmit subframe than in the normal subframe; and, in response to said information indicating that less symbol intervals will be utilized, transmitting the transmit subframe in accordance with the grant message by not transmitting in one or more symbol intervals at the beginning of the subframe interval for the transmit subframe and transmitting in symbol intervals of the remainder of the subframe interval.
System for sorting plants , such as saplings, based on one or more shape features, such as length, said system comprising at least: - a sorting disc , radially subdivided into multiple sorting segments , each sorting segment being suitable for receiving a plant, and each sorting segment being configured with a sorting floor having an open and closed position; - at least a first buffer disc , arranged under said sorting disc and radially subdivided into multiple buffer segments , each buffer segment being suitable for buffering multiple plants and each buffer segment being configured with a buffer floor having an open and closed position; - a collection disc , arranged under said first buffer disc and radially subdivided into multiple collection segments , each collection segment being suitable for receiving multiple plants; - a sensor for determining one or more shape features of a plant in a sorting segment; and - an electronic control system for receiving an electronic signal from said sensor , controlling said sorting floor, thus passing said plant in said sorting segment to a suitable buffer segment, and controlling said buffer floor. - a sorting disc , radially subdivided into multiple sorting segments , each sorting segment being suitable for receiving a plant, and each sorting segment being configured with a sorting floor having an open and closed position; - at least a first buffer disc , arranged under said sorting disc and radially subdivided into multiple buffer segments , each buffer segment being suitable for buffering multiple plants and each buffer segment being configured with a buffer floor having an open and closed position; - a collection disc , arranged under said first buffer disc and radially subdivided into multiple collection segments , each collection segment being suitable for receiving multiple plants; - a sensor for determining one or more shape features of a plant in a sorting segment; and - an electronic control system for receiving an electronic signal from said sensor , controlling said sorting floor, thus passing said plant in said sorting segment to a suitable buffer segment, and controlling said buffer floor.
A method for manufacturing a spark plug , the spark plug comprising: an insulator holding therein a center electrode ; a metal shell surrounding a part of the insulator ; a ground electrode joined to the metal shell , the ground electrode having an inner surface facing the center electrode and an outer surface located opposite the inner surface ; and a tip welded to a tip weld site on the inner surface of the ground electrode , the method comprising: a positioning step of positioning the ground electrode with respect to a first electrode by bringing the outer surface of the ground electrode into contact with the first electrode and bringing a pressing member into contact with a part of the ground electrode other than the tip weld site ; a tip pressing step of allowing a second electrode to press the tip against the tip weld site of the ground electrode ; and a welding step of resistance welding the tip to the tip weld site of the ground electrode by the passage of electric current between the first and second electrodes . a positioning step of positioning the ground electrode with respect to a first electrode by bringing the outer surface of the ground electrode into contact with the first electrode and bringing a pressing member into contact with a part of the ground electrode other than the tip weld site ; a tip pressing step of allowing a second electrode to press the tip against the tip weld site of the ground electrode ; and
A grain bin moisture sensor system comprising: a data collector configured to be associated with a grain bin and comprising a data collector microprocessor and a data collector memory coupled to at least one capacitive moisture cable hanging within the grain bin; each capacitive moisture cable comprising a plurality of sensor nodes spaced at a predetermined interval along a wiring cable through which the sensor nodes are wired in parallel to the data collector; each sensor node comprising a sensor node microprocessor and a sensor node memory coupled to a temperature sensor , a reference capacitive sensor, and a capacitive moisture sensor, each sensor node further comprising a pair of longitudinally extending capacitive plates of the capacitive moisture sensor positioned in side-by-side, spaced-apart relationship to form a longitudinally extending gap between the capacitive plates, a longitudinal length of the moisture cable being positioned within the longitudinal gap between the capacitive plates, a circuit board comprising the sensor node microprocessor, the sensor node memory, and the temperature sensor being positioned within the longitudinal gap between the capacitive plates and adjacent the length of moisture cable; and each sensor node further comprising an outer housing sealed to the moisture cable at each longitudinal end of the housing to create a sealed enclosure surrounding the circuit board, the capacitive plates, and the longitudinal length of the moisture cable, the wiring cable extending through and sealing openings in each longitudinal end of the housing. a data collector configured to be associated with a grain bin and comprising a data collector microprocessor and a data collector memory coupled to at least one capacitive moisture cable hanging within the grain bin; each capacitive moisture cable comprising a plurality of sensor nodes spaced at a predetermined interval along a wiring cable through which the sensor nodes are wired in parallel to the data collector; each sensor node comprising a sensor node microprocessor and a sensor node memory coupled to a temperature sensor , a reference capacitive sensor, and a capacitive moisture sensor, each sensor node further comprising a pair of longitudinally extending capacitive plates of the capacitive moisture sensor positioned in side-by-side, spaced-apart relationship to form a longitudinally extending gap between the capacitive plates, a longitudinal length of the moisture cable being positioned within the longitudinal gap between the capacitive plates, a circuit board comprising the sensor node microprocessor, the sensor node memory, and the temperature sensor being positioned within the longitudinal gap between the capacitive plates and adjacent the length of moisture cable; and each sensor node further comprising an outer housing sealed to the moisture cable at each longitudinal end of the housing to create a sealed enclosure surrounding the circuit board, the capacitive plates, and the longitudinal length of the moisture cable, the wiring cable extending through and sealing openings in each longitudinal end of the housing.
A fastening arrangement for fastening roof equipment to a roof , the fastening arrangement comprising: a bracket comprising at least one engagement means (132a, 132b,..., 132n) for engagement with a roof equipment ; a first fastening portion comprising at least one first fastening means for fastening the fastening arrangement to a first roof structure of a roof ; a second fastening portion comprising at least one second fastening means for fastening the fastening arrangement to a second roof structure of the roof ; attachment means for attaching the first fastening portion to the bracket and/or to the second fastening portion ; and supporting means for supporting at least one section of a first tile in operation; and wherein the first fastening portion and the second fastening portion have elongated band shapes, each elongated band, except for their respective first and second fastening means , is extending outwards from a plane of the roof perpendicular to the plane of the roof so as to be narrow in the plane of the roof , such that the first fastening portion and the second fastening portion are arranged in a raised position along the plane of the roof in operation. a bracket comprising at least one engagement means (132a, 132b,..., 132n) for engagement with a roof equipment ; a first fastening portion comprising at least one first fastening means for fastening the fastening arrangement to a first roof structure of a roof ; a second fastening portion comprising at least one second fastening means for fastening the fastening arrangement to a second roof structure of the roof ; attachment means for attaching the first fastening portion to the bracket and/or to the second fastening portion ; and supporting means for supporting at least one section of a first tile in operation; and wherein the first fastening portion and the second fastening portion have elongated band shapes, each elongated band, except for their respective first and second fastening means , is extending outwards from a plane of the roof perpendicular to the plane of the roof so as to be narrow in the plane of the roof , such that the first fastening portion and the second fastening portion are arranged in a raised position along the plane of the roof in operation.
An insulating film-equipped metal material comprising: a metal material; and an insulating film covering at least a part of a surface of the metal material, wherein the insulating film includes: an insulating first layer directly disposed on the surface of the metal material and formed of a coating film containing a clay mineral; and a second layer disposed on the surface of the metal material so as to at least partly overlap with a surface of the first layer and having insulating property and moisture resistance greater than those of the first layer, and wherein the second layer is a layer containing at least one selected from a silicon based oxide, an aluminum based oxide, a zirconium based oxide, a magnesium based oxide, a calcium based oxide, a titanium based oxide, a hafnium based oxide, a silicon based nitride, a silicon based oxynitride, and a silicon based carbide. a metal material; and an insulating film covering at least a part of a surface of the metal material, an insulating first layer directly disposed on the surface of the metal material and formed of a coating film containing a clay mineral; and a second layer disposed on the surface of the metal material so as to at least partly overlap with a surface of the first layer and having insulating property and moisture resistance greater than those of the first layer, and wherein
An aircraft or spacecraft passenger cabin partition , comprising a flexible membrane , which forms a flexible inflatable envelope extending over substantially an entire areal expanse of the partition enclosing at least one chamber configured inflatable to stiffen the partition , characterised in that the partition comprises a plurality of reinforcing bands , which extend across and reinforce the envelope , wherein the bands are connected to or integrated in the flexible membrane , and wherein the bands are configured for tensile loading, the partition further comprising connecting elements provided on upper and lower edge regions of the partition for securely fastening the partition to complementary connecting members on a fuselage of the aircraft or spacecraft, each of the connecting elements being provided in a region of a respective reinforcing band .
A wound rotor for a rotating electrical machine having a shaft rotating around an axis of rotation (X) and a core extending longitudinally along and radially around said axis of rotation (X), said core comprising a plurality of coils having first and second lateral parts positioned in corresponding first and second cavities of said core , said first and second lateral parts of said coils being reciprocally connected by corresponding coil heads , wherein the wound rotor comprises supporting and retaining means of said coil heads , said supporting and retaining means comprising a supporting ring rigidly connected to said core , concentrically positioned with respect to said axis of rotation (X), and internally positioned in the radial direction with respect to said coil heads , characterized in that the wound rotor comprises a plurality of fixing plates externally positioned in the radial direction with respect to said coil heads and rigidly connected to said supporting ring , said coil heads being interposed between said supporting ring and said fixing plates
A method for managing wireless communications, the method comprising: selecting , using at least a first wireless communication device , a subset of time slots of a channel of an unlicensed band; monitoring, using the first wireless communication device , traffic on the channel during the selected subset of time slots, wherein monitoring the traffic on the channel comprises: determining whether a signal is being transmitted in the unlicensed band during one or more time slots of the selected subset of time slots; and in response to determining that a signal is being transmitted, selecting an updated subset of time slots of the channel by dynamically varying a duty cycle between adjacent time slots of the selected subset of time slots, wherein dynamically varying the duty cycle comprises increasing a number of unselected time slots between adjacent time slots of the updated subset of time slots; and communicating , using the first wireless communication device , data with a second wireless communication device during a transmission time slot selected based on the updated subset of time slots. determining whether a signal is being transmitted in the unlicensed band during one or more time slots of the selected subset of time slots; and in response to determining that a signal is being transmitted, selecting an updated subset of time slots of the channel by dynamically varying a duty cycle between adjacent time slots of the selected subset of time slots, wherein dynamically varying the duty cycle comprises increasing a number of unselected time slots between adjacent time slots of the updated subset of time slots; and