mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna array comprising a plurality of radiating cells, the radiating cells each comprising: a patch antenna ; a ground plane , the ground plane having a first side facing the patch antenna, wherein the ground plane comprises at least a first slot and a second slot, wherein the first slot is orthogonal to the second slot; and a stripline feed network, the stripline feed network located on a second side of the ground plane, wherein the ground plane is configured to isolate the patch antenna from the stripline feed network, wherein the stripline feed network further comprises a compacted hybrid, wherein the compacted hybrid comprises two input ports comprising a first port and a second port, and the compacted hybrid comprises two output ports comprising a third port and a fourth port, wherein the compacted hybrid comprises two bent branches designed to bring the input ports and the output ports closer to one another, wherein a center axis of at least one of the first slot and the second slot of the ground plane is within an angled range of 20°-70° to the output ports of the compacted hybrid, wherein the radiating cells of the antenna array comprise radiating element spacing lower than 0.6 wavelengths, wherein the patch antenna is connected to the compacted hybrid using two paths of equal length. a patch antenna ; a ground plane , the ground plane having a first side facing the patch antenna, wherein the ground plane comprises at least a first slot and a second slot, wherein the first slot is orthogonal to the second slot; and a stripline feed network, the stripline feed network located on a second side of the ground plane, wherein the ground plane is configured to isolate the patch antenna from the stripline feed network, wherein the stripline feed network further comprises a compacted hybrid, wherein the compacted hybrid comprises two input ports comprising a first port and a second port, and the compacted hybrid comprises two output ports comprising a third port and a fourth port, wherein the compacted hybrid comprises two bent branches designed to bring the input ports and the output ports closer to one another, wherein a center axis of at least one of the first slot and the second slot of the ground plane is within an angled range of 20°-70° to the output ports of the compacted hybrid, wherein the radiating cells of the antenna array comprise radiating element spacing lower than 0.6 wavelengths, wherein the patch antenna is connected to the compacted hybrid using two paths of equal length.
Procedure designed to make a measuring tube of an electromagnetic flowmeter designed to measure the volume flow or the flow velocity of a medium flowing through a measuring tube , wherein said procedure comprises the following steps: Provisioning and positioning of an inner mold and an outer mold as well as two measuring electrodes in a first procedural step , wherein an annular channel is formed between the inner mold and the outer mold , wherein the annular channel has an annular channel axis, wherein the inner mold has at least two annular sealing surfaces , which face away from one another and each surround a recess of the inner mold , wherein the surface normals of the sealing surfaces extend in opposite directions in a manner that is perpendicular to the annular channel axis, wherein the measuring electrodes each have an electrode shaft and a front face that is oriented towards the annular channel axis with an annular periphery area (21.2) and a central area (21.1) surrounded by the periphery area, wherein the two measuring electrodes are each maintained by the outer mold in such a way that the electrode shafts pass through the annular channel in the direction of one of the surface normals, and that the annular periphery areas (21.2) each abut one of the annular sealing surfaces; Filling in of the annular channel with a plastic material forming a measuring tube body of the measuring tube by means of injection molding in a second procedural step ; Hardening of the plastic material in a third procedural step ; and Removal of the inner mold and the outer mold in a fourth procedural step , wherein the sealing surfaces and the annular periphery areas are planar. Provisioning and positioning of an inner mold and an outer mold as well as two measuring electrodes in a first procedural step , wherein an annular channel is formed between the inner mold and the outer mold , wherein the annular channel has an annular channel axis, wherein the inner mold has at least two annular sealing surfaces , which face away from one another and each surround a recess of the inner mold , wherein the surface normals of the sealing surfaces extend in opposite directions in a manner that is perpendicular to the annular channel axis, wherein the measuring electrodes each have an electrode shaft and a front face that is oriented towards the annular channel axis with an annular periphery area (21.2) and a central area (21.1) surrounded by the periphery area, wherein the two measuring electrodes are each maintained by the outer mold in such a way that the electrode shafts pass through the annular channel in the direction of one of the surface normals, and that the annular periphery areas (21.2) each abut one of the annular sealing surfaces; Filling in of the annular channel with a plastic material forming a measuring tube body of the measuring tube by means of injection molding in a second procedural step ; Hardening of the plastic material in a third procedural step ; and Removal of the inner mold and the outer mold in a fourth procedural step , wherein the sealing surfaces and the annular periphery areas are planar.
An amphibious drone, comprising a fuselage, a vertical tail and a wing, wherein the amphibious drone is equipped with a take-off and landing device , the take-off and landing device is provided on the lower surface of one or more of the fuselage , the vertical tail and the wing , the take-off and landing device comprises a buoyancy unit and a power device, and the power device is capable of generating thrust to push the buoyancy unit to move forward, wherein the take-off and landing device is detachably connected to the fuselage and/or the vertical tail and/or the wing , and wherein the buoyancy unit is an open hollow structure, and at least a part of the power device is located in the intermediate space of the buoyancy unit . the take-off and landing device is detachably connected to the fuselage and/or the vertical tail and/or the wing , and wherein the buoyancy unit is an open hollow structure, and at least a part of the power device is located in the intermediate space of the buoyancy unit .
Arrangement for cooling a generator mounted in a nacelle of a wind turbine, the arrangement comprising: a cooling air inlet at an outer wall of the nacelle for introducing cooling air into a space region inside the nacelle; an inlet fan downstream the cooling air inlet configured to pressurize the introduced cooling air within the space region ; a duct system adapted to guide a portion of cooling air heated by exchange of heat from the generator portions to the cooling air into the space region ; characterized by the following features: a filter system downstream the inlet fan and separating the space region from another space region inside the nacelle , the other space region being in communication with generator portions to be cooled. a cooling air inlet at an outer wall of the nacelle for introducing cooling air into a space region inside the nacelle; an inlet fan downstream the cooling air inlet configured to pressurize the introduced cooling air within the space region ; a duct system adapted to guide a portion of cooling air heated by exchange of heat from the generator portions to the cooling air into the space region ;
A calibration bracket for mounting a calibration element which is used for calibrating a vehicle-mounted driver assistant system, comprising: a base ; a stand assembly fixedly connected to the base ; and a beam assembly ; wherein, the beam assembly comprises a first beam portion , a second beam portion and a connecting portion , the connecting portion being mounted to the stand assembly , one end of the connecting portion being pivotally connected to the first beam portion , and the other end of the connecting portion being pivotally connected to the second beam portion ; characterized in that , the first beam portion and the second beam portion are rotatable downward and toward each other relative to the connecting portion ; wherein the first beam portion comprises a first guide rail , and the second beam portion comprises a second guide rail , the calibration element being slidable along the first guide rail or the second guide rail . a base ; a stand assembly fixedly connected to the base ; and a beam assembly ; wherein, the beam assembly comprises a first beam portion , a second beam portion and a connecting portion , the connecting portion being mounted to the stand assembly , one end of the connecting portion being pivotally connected to the first beam portion , and the other end of the connecting portion being pivotally connected to the second beam portion ; characterized in that , the first beam portion and the second beam portion are rotatable downward and toward each other relative to the connecting portion ; wherein the first beam portion comprises a first guide rail , and the second beam portion comprises a second guide rail , the calibration element being slidable along the first guide rail or the second guide rail .
An edible formulation comprising edible fungal particles of a filamentous fungus and calcium ions, wherein said edible formulation includes 0 wt% of components derived from animals; and wherein said edible formulation includes at least 2,000mg of calcium ions per Kg of filamentous fungus on a dry matter basis; wherein said edible formulation includes at least 20 wt% of said filamentous fungus on a dry matter basis; wherein said edible formulation includes at least 0.100 wt% and less than 1 wt% of calcium ions in total, on a dry weight basis; wherein said edible formulation includes at least 50 wt% of water; wherein said edible formulation includes acetate moieties; wherein said edible fungal particles comprise filaments with an aspect ratio (length/ diameter) of greater than 40; wherein said edible fungal particles have a number average length of greater than 200 μm; and wherein said edible formulation is provided in a package, wherein said package includes at least 50g of said edible formulation. wherein said edible formulation includes at least 20 wt% of said filamentous fungus on a dry matter basis; wherein said edible formulation includes at least 0.100 wt% and less than 1 wt% of calcium ions in total, on a dry weight basis; wherein said edible formulation includes at least 50 wt% of water; wherein said edible formulation includes acetate moieties; wherein said edible fungal particles comprise filaments with an aspect ratio (length/ diameter) of greater than 40; wherein said edible fungal particles have a number average length of greater than 200 μm; and wherein said edible formulation is provided in a package, wherein said package includes at least 50g of said edible formulation.
A service controller device , comprising: a processor ; a memory to store connection information , an access credential , and an access credential hash ; a beacon broadcaster to broadcast the connection information and the access credential hash to a client device using in-band signaling; an access credential director to send the access credential to an out-of-band communicator ; and a client connector to allow a client device to access the service controller device based on the client device 's use of the connection information ; wherein the connection information is identified based on the matching of the access credential to the access credential hash . a processor ; a memory to store connection information , an access credential , and an access credential hash ; a beacon broadcaster to broadcast the connection information and the access credential hash to a client device using in-band signaling; an access credential director to send the access credential to an out-of-band communicator ; and a client connector to allow a client device to access the service controller device based on the client device 's use of the connection information ; wherein the connection information is identified based on the matching of the access credential to the access credential hash .
An overcurrent protection circuit for battery discharge, comprising: a discharge switch transistor connected in a battery discharge path, wherein the overcurrent protection circuit further comprises: a discharge control module configured to detect a discharge current of a battery, and to determine whether an overcurrent occurs by comparing the detected discharge current with a preset limiting value, wherein if no overcurrent occurs, the discharge control module is adapted to control the discharge switch transistor to be switched on; wherein the overcurrent protection circuit further comprises a time delay module configured to determine whether the overcurrent has timed out by comparing the time of the overcurrent with a preset delay time, and if the overcurrent occurs, the discharge control module is adapted to control the discharge switch transistor to be switched off, characterized in that when the overcurrent has timed out, the discharge control module is adapted to lock the discharge switch transistor in the switch-off state. a discharge control module configured to detect a discharge current of a battery, and to determine whether an overcurrent occurs by comparing the detected discharge current with a preset limiting value, wherein if no overcurrent occurs, the discharge control module is adapted to control the discharge switch transistor to be switched on; wherein the overcurrent protection circuit further comprises a time delay module configured to determine whether the overcurrent has timed out by comparing the time of the overcurrent with a preset delay time, and if the overcurrent occurs, the discharge control module is adapted to control the discharge switch transistor to be switched off, characterized in that when the overcurrent has timed out, the discharge control module is adapted to lock the discharge switch transistor in the switch-off state.
A method of transmitting an uplink signal by a user equipment, UE , the method comprising: determining a first transmission power, PPUSCH_cell1, for a physical uplink shared channel, PUSCH, allocated to a subframe n on a first cell, a first cell PUSCH, configured in a licensed band and a second transmission power, PPUSCH-cell2, for a PUSCH allocated to the subframe n on a second cell, a second cell PUSCH, configured in an unlicensed band, wherein, when a sum of PPUSCH_cell1 and PPUSCH_cell2 exceeds a maximum power, P_max, configured for the UE , and the first cell PUSCH does not contain uplink control information, UCI, reducing the determined PPUSCH_cell1; and transmitting the first cell PUSCH on the first cell in the subframe n at the reduced PPUSCH_cell1 or dropping a transmission of the first cell PUSCH in the subframe n. determining a first transmission power, PPUSCH_cell1, for a physical uplink shared channel, PUSCH, allocated to a subframe n on a first cell, a first cell PUSCH, configured in a licensed band and a second transmission power, PPUSCH-cell2, for a PUSCH allocated to the subframe n on a second cell, a second cell PUSCH, configured in an unlicensed band, wherein, when a sum of PPUSCH_cell1 and PPUSCH_cell2 exceeds a maximum power, P_max, configured for the UE , and the first cell PUSCH does not contain uplink control information, UCI, reducing the determined PPUSCH_cell1; and transmitting the first cell PUSCH on the first cell in the subframe n at the reduced PPUSCH_cell1 or dropping a transmission of the first cell PUSCH in the subframe n.
Two terminal tandem solar cell of a layered structure comprising: - an electron conductivity crystalline silicon base the bottom surface of which has an ohmic contact with a bottom electrical terminal , - a heavily doped hole conductivity silicon emitter located on said crystalline silicon base , - an electron transport layer deposited on the hole conductivity silicon emitter , - a tunnel junction located between the hole conductivity silicon emitter and the electron transport layer , - a perovskite layer located on the electron transport layer , wherein the surface of the perovskite layer has an ohmic contact with a top electrical terminal , characterized in that the electron transport layer is of titanium dioxide and the tunnel junction is formed by heavy doping with niobium donor impurity a region of the electron transport layer that is in contact with the surface of said heavily doped hole conductivity silicon emitter . - an electron conductivity crystalline silicon base the bottom surface of which has an ohmic contact with a bottom electrical terminal , - a heavily doped hole conductivity silicon emitter located on said crystalline silicon base , - an electron transport layer deposited on the hole conductivity silicon emitter , - a tunnel junction located between the hole conductivity silicon emitter and the electron transport layer , - a perovskite layer located on the electron transport layer , wherein the surface of the perovskite layer has an ohmic contact with a top electrical terminal , characterized in that
A use of a cryogenic liquid essentially made of hydrofluoroether as an immersion medium for immersing an immersion objective in light microscopy.
Method for improving the growth and/or development and the productivity of non-leguminous plants, comprising the provision of a composition comprising at least one mycorriza and at least one yeast extract corresponding to the content of the yeast cells with the exclusion of the shells and obtained by a process selected from the group comprising plasmolysis, autolysis, and the combination of plasmolysis and autolysis.
Positioning device for positioning repeating components of a cell stack for battery or fuel cells to be placed one on top of the other, comprising a vibrating jaw (26, 26a, 26a1, 26a2, 26b, 26b1, 26b2, 26c, 26d) which can be set in vibration by means of at least one vibration generator and has a vibrating jaw contact surface for contacting an edge of the repeating component to be laid for vibrationally centering the same, and a positioning jaw (32, 32a1, 32a2, 32b1, 26b2, 26c, 26d) which is rigid in operation and is disposed below an upper region of the vibrating jaw (26, 26a1, 26a2, 26b, 26b1, 26b2, 26c, 26d) and has a positioning jaw contact surface for contacting an edge of the cell stack to be formed for holding the same in position, wherein a) the positioning jaw (32, 32a1, 32a2, 32b1, 32b2, 32c, 32d) and the vibrating jaw (26, 26a, 26a1, 26a2, 26b, 26b1, 26b2, 26c, 26d) have, on a jaw area forming the contact surfaces , a complementary protrusion-recess feature by which the positioning jaw (32, 32a1, 32a2, 32b1, 32b2, 32c, 32d) and the vibrating jaw (26, 26a, 26a1, 26a2, 26b1, 26b2, 26c, 26d) engage with each other and/or b) the vibrating jaw (26, 26a, 26a1, 26a2, 26b, 26b1, 26b2, 26c, 26d) is designed to move an end region of the vibrating jaw contact surface arranged near the positioning jaw contact surface along an arcuate path during oscillation, a tangent of the arcuate path lying on the positioning jaw contact surface . a) the positioning jaw (32, 32a1, 32a2, 32b1, 32b2, 32c, 32d) and the vibrating jaw (26, 26a, 26a1, 26a2, 26b, 26b1, 26b2, 26c, 26d) have, on a jaw area forming the contact surfaces , a complementary protrusion-recess feature by which the positioning jaw (32, 32a1, 32a2, 32b1, 32b2, 32c, 32d) and the vibrating jaw (26, 26a, 26a1, 26a2, 26b1, 26b2, 26c, 26d) engage with each other and/or b) the vibrating jaw (26, 26a, 26a1, 26a2, 26b, 26b1, 26b2, 26c, 26d) is designed to move an end region of the vibrating jaw contact surface arranged near the positioning jaw contact surface along an arcuate path during oscillation, a tangent of the arcuate path lying on the positioning jaw contact surface .
A method comprising: receiving configuration information by a user equipment, in the following also referred to as UE, the configuration information applies to selecting WLAN or 3GPP Radio Access Technology, in the following also referred to as RAT; determining , by the UE, if the UE may perform WLAN offload by evaluating 3GPP Radio Access Network, in the following also referred to as RAN, conditions where at least one RAN condition is related to a radio signal strength or radio signal quality in 3GPP RAT; and determining , by the UE, if there is at least one suitable WLAN cell by evaluating WLAN conditions; characterized by determining , by the UE, which traffic is candidate traffic for WLAN off load based on an UE capability, wherein the UE capability means that the UE has capability to only offload all traffic or no traffic, or has capability to do offload on APN level, wherein if one flow for a certain APN is offloaded, all flows for this APN shall be offloaded; and steering , by the UE, the determined candidate traffic to WLAN if the UE may perform WLAN offload and if there is at least one suitable WLAN cell, otherwise steering the determined traffic to 3GPP RAT. receiving configuration information by a user equipment, in the following also referred to as UE, the configuration information applies to selecting WLAN or 3GPP Radio Access Technology, in the following also referred to as RAT; determining , by the UE, if the UE may perform WLAN offload by evaluating 3GPP Radio Access Network, in the following also referred to as RAN, conditions where at least one RAN condition is related to a radio signal strength or radio signal quality in 3GPP RAT; and determining , by the UE, if there is at least one suitable WLAN cell by evaluating WLAN conditions; characterized by determining , by the UE, which traffic is candidate traffic for WLAN off load based on an UE capability, wherein the UE capability means that the UE has capability to only offload all traffic or no traffic, or has capability to do offload on APN level, wherein if one flow for a certain APN is offloaded, all flows for this APN shall be offloaded; and steering , by the UE, the determined candidate traffic to WLAN if the UE may perform WLAN offload and if there is at least one suitable WLAN cell, otherwise steering the determined traffic to 3GPP RAT.