mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless station to operate as a per-symbol relay device for retransmission of symbols between client devices and a master device using millimeter-wave links (103; 105), the relay device arranged to: receive one or more of independent symbol streams from the master device, each independent symbol stream comprising packets that include groups of one or more symbols, each group within a packet being destined for a different one of the client devices; and separately decode each symbol or group of symbols for recoding and retransmission to the client devices using beamforming, wherein the relay device is configurable to receive symbols or groups of symbols within the packet from the master device that are encoded with different modulation and coding schemes 'MCSs', wherein the relay device is configurable to retransmit groups of symbols or group of symbols to the client devices using the different MCSs, wherein the relay device is arranged to perform link adaptation with the master device and with the associated client devices for determination of the MCSs, wherein the MCS for symbols or groups of symbols destined for a same client device is selected based on link characteristics between the relay device and the master device and link characteristics between the relay device and the client device, and wherein the relay device is arranged to receive, decode, recode and retransmit each received symbol or group of symbols within a delay that is bounded by a number of symbols in the group. receive one or more of independent symbol streams from the master device, each independent symbol stream comprising packets that include groups of one or more symbols, each group within a packet being destined for a different one of the client devices; and separately decode each symbol or group of symbols for recoding and retransmission to the client devices using beamforming, wherein the relay device is configurable to receive symbols or groups of symbols within the packet from the master device that are encoded with different modulation and coding schemes 'MCSs', wherein the relay device is configurable to retransmit groups of symbols or group of symbols to the client devices using the different MCSs, wherein the relay device is arranged to perform link adaptation with the master device and with the associated client devices for determination of the MCSs, wherein the MCS for symbols or groups of symbols destined for a same client device is selected based on link characteristics between the relay device and the master device and link characteristics between the relay device and the client device, and wherein the relay device is arranged to receive, decode, recode and retransmit each received symbol or group of symbols within a delay that is bounded by a number of symbols in the group.
Device for plant irrigation , comprising at least one structure for distributing liquid for the irrigation of a rootable substrate , at least one substantially gas-tight storage vessel with an outlet , suitable for receiving a liquid supply , as well as at least one branched or unbranched pipe and/or hose connection between the at least one storage vessel and the at least one structure for distributing liquid , through which liquid can pass from the at least one storage vessel to the at least one structure for distributing liquid , characterized in that it has at least one closable opening located in the storage vessel with at least one shut-off device for the opening , via which gas exchange between the interior of the storage vessel and the environment can take place in a suitable manner substantially precisely when this is necessary to substantially maintain the desired negative pressure, and in that the at least one structure for distributing liquid has an air inlet value between 1 hPa and 1013 hPa, preferably between 50 hPa and 900 hPa, particularly preferably between 100 hPa and 800 hPa, and a pressure sensor is located in the reservoir for determining the capillary forces of the rootable substrate .
A transponder with at least one two way rectifier (D1, D2) for supplying the transponder with energy from a received high frequency signal (HF) and for demodulating the high frequency signal (HF), the two way rectifier (D1, D2) comprising: - two current paths with different current directions including one output (V+, V-) per current path, - the transponder further comprising a digital circuit portion (IDD1) with digital electronics for evaluating a received code, - further comprising a circuit portion for operating a post pulse resonator or quartz or temperature measuring quartz (XT1) for analog determination and transmission of at least one measurement valve, characterized in that , - a first output (V-) of the two way rectifier (D1, D2) is DC voltage connected with ground through an inductivity (L1), - a second output (V+) of the two way rectifier (D1, D2) from the current path that has a current direction that is opposite to the current direction of the current path of the first output is DC voltage connected to ground through a circuit element (V1), - the first output (V-) that is terminated by the inductivity (L1) supplies the circuit portion to operate the post pulse oscillating resonator or the quartz or the temperature measurement quartz, - the second output (V+) that is terminated by the circuit element (V1) supplies the digital circuit portion (IDD1). - two current paths with different current directions including one output (V+, V-) per current path, - the transponder further comprising a digital circuit portion (IDD1) with digital electronics for evaluating a received code, - further comprising a circuit portion for operating a post pulse resonator or quartz or temperature measuring quartz (XT1) for analog determination and transmission of at least one measurement valve, - a first output (V-) of the two way rectifier (D1, D2) is DC voltage connected with ground through an inductivity (L1), - a second output (V+) of the two way rectifier (D1, D2) from the current path that has a current direction that is opposite to the current direction of the current path of the first output is DC voltage connected to ground through a circuit element (V1), - the first output (V-) that is terminated by the inductivity (L1) supplies the circuit portion to operate the post pulse oscillating resonator or the quartz or the temperature measurement quartz, - the second output (V+) that is terminated by the circuit element (V1) supplies the digital circuit portion (IDD1).
An imaging apparatus for capturing an image of a target object, comprising: lens optical systems (La-Ld) arranged in an array, wherein each of the lens optical systems (La-Ld) includes a lens (L1) whose surface closest to the target object is shaped to be convex toward the target object; imaging regions (la, lb) which respectively face the lens optical systems (La-Ld) and output a photoelectrically converted signal corresponding to an amount of light transmitting the lens optical systems (La-Ld) and received by the imaging regions (la, lb); and a light-transmissive cover (L0) which covers an exposed portion of the lens (L1) of each of the lens optical systems (La-Ld) and a portion between the lens (L1) of one of the lens optical systems (La-Ld) and the lens (L1) of another one of the lens optical systems (La-Ld) adjacent to the one of the lens optical systems, the cover (L0) having a curved portion which is convex toward the target object, wherein an optical axis of each of the lens optical systems (La-Ld) is eccentric to a center axis of the cover (L0), and characterised in that |f0| > 50 fx is satisfied, where fa represents a focal length of the cover (L0) and fx represents the focal length of each of the lens optical systems (La-Ld). lens optical systems (La-Ld) arranged in an array, wherein each of the lens optical systems (La-Ld) includes a lens (L1) whose surface closest to the target object is shaped to be convex toward the target object; imaging regions (la, lb) which respectively face the lens optical systems (La-Ld) and output a photoelectrically converted signal corresponding to an amount of light transmitting the lens optical systems (La-Ld) and received by the imaging regions (la, lb); and a light-transmissive cover (L0) which covers an exposed portion of the lens (L1) of each of the lens optical systems (La-Ld) and a portion between the lens (L1) of one of the lens optical systems (La-Ld) and the lens (L1) of another one of the lens optical systems (La-Ld) adjacent to the one of the lens optical systems, the cover (L0) having a curved portion which is convex toward the target object, wherein an optical axis of each of the lens optical systems (La-Ld) is eccentric to a center axis of the cover (L0), and characterised in that |f0| > 50 fx is satisfied, where fa represents a focal length of the cover (L0) and fx represents the focal length of each of the lens optical systems (La-Ld).
A computer-implemented method for embedding copyright information in digital content, the method comprising: generating , by a computing device, a unique identifier, ID, based on copyright information associated with the digital content, wherein the copyright information and the digital content are recorded on a blockchain of a blockchain network, wherein the digital content is recorded on the blockchain as a first transaction associated with a first blockchain transaction ID and the copyright information is associated with a second transaction associated with a second blockchain transaction ID, and wherein the first blockchain transaction ID or the second blockchain transaction ID is associated with one or more transaction records associated with the digital content, wherein the unique ID is generated based on a timestamp associated with the copyright information; identifying , by the computing device, a plurality of color values associated with one or more color attributes of at least a portion of the digital content; and embedding , by the computing device, the unique ID in the digital content by changing one or more color values of the plurality of color values to be representative of the unique ID, wherein the embedding produces information-embedded digital content that enables retrieval of the copyright information from the blockchain based on the unique ID, and wherein a visual difference between the digital content and the information-embedded digital content is not apparent to an unaided human eye. generating , by a computing device, a unique identifier, ID, based on copyright information associated with the digital content, wherein the copyright information and the digital content are recorded on a blockchain of a blockchain network, wherein the digital content is recorded on the blockchain as a first transaction associated with a first blockchain transaction ID and the copyright information is associated with a second transaction associated with a second blockchain transaction ID, and wherein the first blockchain transaction ID or the second blockchain transaction ID is associated with one or more transaction records associated with the digital content, wherein the unique ID is generated based on a timestamp associated with the copyright information; identifying , by the computing device, a plurality of color values associated with one or more color attributes of at least a portion of the digital content; and embedding , by the computing device, the unique ID in the digital content by changing one or more color values of the plurality of color values to be representative of the unique ID, wherein the embedding produces information-embedded digital content that enables retrieval of the copyright information from the blockchain based on the unique ID, and wherein a visual difference between the digital content and the information-embedded digital content is not apparent to an unaided human eye.
A fluid dispensing device, comprising: a hose configured to pass fluid therethrough; a nozzle attached to a distal end of the hose , the nozzle being configured to receive the fluid from the hose , the nozzle being configured to dispense the fluid from a distal end thereof, and the nozzle being configured to pass air therethrough such that air is allowed to pass through an opening of the nozzle , the fluid and the air being prevented from mixing together within the nozzle ; a housing having a cavity configured to releasably seat the nozzle therein; a heat element configured to heat the air passing through the nozzle ; a sensor configured to sense an ambient outdoor temperature; and a controller configured to allow the heat element to provide heat therefrom when the sensed temperature is below a predetermined threshold temperature, and the controller being configured to prevent the heat element from providing heat when the sensed temperature is above the predetermined threshold temperature. a hose configured to pass fluid therethrough; a nozzle attached to a distal end of the hose , the nozzle being configured to receive the fluid from the hose , the nozzle being configured to dispense the fluid from a distal end thereof, and the nozzle being configured to pass air therethrough such that air is allowed to pass through an opening of the nozzle , the fluid and the air being prevented from mixing together within the nozzle ; a housing having a cavity configured to releasably seat the nozzle therein; a heat element configured to heat the air passing through the nozzle ; a sensor configured to sense an ambient outdoor temperature; and a controller configured to allow the heat element to provide heat therefrom when the sensed temperature is below a predetermined threshold temperature, and the controller being configured to prevent the heat element from providing heat when the sensed temperature is above the predetermined threshold temperature.
An injection device comprising a housing , which has a longitudinal central axis , and a metering member which is held in the housing so as to be rotatable and fixed in the direction of the longitudinal central axis and which is connected via a first threaded connection to an injection sleeve which is rotationally fixedly held with respect to the housing and is displaceably held in the direction of the longitudinal central axis , wherein, on the setting of a dosage of injection liquid to be squeezed out, the metering member rotates with respect to the housing and the injection sleeve moves in the distal direction due to the first threaded connection , and wherein, on the squeezing out of a set dosage of injection liquid, the metering member moves in the opposite direction with respect to the housing and the injection sleeve moves in the proximal direction due to the first threaded connection , wherein the injection device has a spring which is supported with respect to the injection sleeve with its first end and is supported with respect to the housing with its second end and which moves the injection sleeve in the proximal direction on the squeezing out of injection liquid and thereby brings about the squeezing out of the set dosage of injection liquid, wherein the injection device has a metering piston for squeezing injection liquid out of the container , characterized in that the metering piston is connected to the metering member via a second threaded connection , with, on the setting of the amount of injection liquid to be squeezed out, the metering piston being rotationally fixedly connected to the metering member and rotating with the metering member , and with, on the squeezing out of an amount of injection liquid to be squeezed out, the metering piston being rotationally fixedly connected to the housing and moving in the proximal direction due to the second threaded connection .
An earphone , comprising: a body formed of a polymer material, the body having an outer portion and an inner portion configured to be located in an ear ; an acoustic transducer ; and an acoustic waveguide comprising a cavity in the polymer material of the body for coupling sound waves from the acoustic transducer into the ear , the acoustic waveguide having an outer end provided by an opening in the outer portion of the body and an inner end provided by an opening in the inner portion ) of the body , at least the inner end being open, wherein the acoustic transducer is mounted to the outer portion of the body and is arranged at the outer end of the acoustic waveguide , wherein the acoustic waveguide has a neck between the outer end and the inner end , the acoustic waveguide having a cross section at the neck that is smaller than a cross section at each of the outer end and the inner end , and wherein the acoustic waveguide includes a bend and the neck is located at the bend . a body formed of a polymer material, the body having an outer portion and an inner portion configured to be located in an ear ; an acoustic transducer ; and an acoustic waveguide comprising a cavity in the polymer material of the body for coupling sound waves from the acoustic transducer into the ear , the acoustic waveguide having an outer end provided by an opening in the outer portion of the body and an inner end provided by an opening in the inner portion ) of the body , at least the inner end being open, wherein the acoustic transducer is mounted to the outer portion of the body and is arranged at the outer end of the acoustic waveguide , wherein the acoustic waveguide has a neck between the outer end and the inner end , the acoustic waveguide having a cross section at the neck that is smaller than a cross section at each of the outer end and the inner end , and wherein the acoustic waveguide includes a bend and the neck is located at the bend .
A cardiac function variation evaluation apparatus comprising: a power consuming continuous flow auxiliary artificial heart of the bypass type connectable to a left ventricle ; a pressure sensor also connectable to the left ventricle for detecting ventricle internal pressure; means configured to evaluate the contractile variation of the left ventricle , to which the auxiliary artificial heart is connectable, by continuously monitoring the variation of the closed loop internal area (APM p ) of a relationship between the ventricle internal pressure detected by the pressure sensor and power consumption of the auxiliary artificial heart obtained by multiplying a current wave of the motor and motor voltage of said auxiliary artificial heart. a power consuming continuous flow auxiliary artificial heart of the bypass type connectable to a left ventricle ; a pressure sensor also connectable to the left ventricle for detecting ventricle internal pressure; means configured to evaluate the contractile variation of the left ventricle , to which the auxiliary artificial heart is connectable, by continuously monitoring the variation of the closed loop internal area (APM p ) of a relationship between the ventricle internal pressure detected by the pressure sensor and power consumption of the auxiliary artificial heart obtained by multiplying a current wave of the motor and motor voltage of said auxiliary artificial heart.
Method for amplifying a target nucleic acid , the method comprising the following steps: a) providing a sample fluid containing the target nucleic acid in a reaction container and at least one local heating element in direct contact with the sample fluid; b) providing magnetic microparticles in the sample fluid , wherein the magnetic microparticles are each functionalized with at least one primer for amplifying the target nucleic acid ; c) hybridizing the target nucleic acid with at least one of the primers functionalized on the magnetic microparticles ; d) providing a magnetic field in the reaction container such that at least some of the magnetic microparticles with the target nucleic acid hybridized thereto attach to the local heating element ; e) removing the sample fluid from the reaction container ; f) performing one or more washing steps to which the reaction container is subjected; g) providing a reaction solution for performing an amplification reaction of the target nucleic acid in the reaction container ; h) locally heating the reaction solution to a denaturation temperature by means of the local heating element in the region in which the magnetic microparticles are attached to the local heating element , wherein a heating period of the local heating element for locally heating the reaction solution to the denaturation temperature is not more than 20 ms per denaturation step. a) providing a sample fluid containing the target nucleic acid in a reaction container and at least one local heating element in direct contact with the sample fluid; b) providing magnetic microparticles in the sample fluid , wherein the magnetic microparticles are each functionalized with at least one primer for amplifying the target nucleic acid ; c) hybridizing the target nucleic acid with at least one of the primers functionalized on the magnetic microparticles ; d) providing a magnetic field in the reaction container such that at least some of the magnetic microparticles with the target nucleic acid hybridized thereto attach to the local heating element ; e) removing the sample fluid from the reaction container ; f) performing one or more washing steps to which the reaction container is subjected; g) providing a reaction solution for performing an amplification reaction of the target nucleic acid in the reaction container ; h) locally heating the reaction solution to a denaturation temperature by means of the local heating element in the region in which the magnetic microparticles are attached to the local heating element , wherein a heating period of the local heating element for locally heating the reaction solution to the denaturation temperature is not more than 20 ms per denaturation step.
Electrical flat conductor for motor vehicles, - with a flat conductor core of electrically conductive flat conductor material and - with an insulation of an insulating material encasing the flat conductor core , - wherein the height (Hk) of the flat conductor core is less than the width (Bk) of the flat conductor core, - wherein the flat conductor core has at least one narrow side (46a-b, 68a-b, 86a-b, 106a-b), which limits the width of the flat conductor core on one side and - wherein the at least one narrow side (46a-b, 68a-b, 86a-b, 106a-b) of the flat conductor core has at least in sections over the length of the flat conductor a partial surface (52a-b, 70a-b, 114a-b), whose contour in the cross-section of the flat conductor core forms a straight section (46a-b, 54a-b, 72a-b, 116a-b), which extends over a part of the height of the flat conductor core , characterised in - that the flat conductor has at least one bend around the at least one narrow side (46a-b, 68a-b, 86a-b, 106a-b) of the flat conductor core and - that the straight section (46a-b, 54a-b, 72a-b, 116a-b) extends over at least 75% and over at most 90% of the height of the flat conductor core . - with a flat conductor core of electrically conductive flat conductor material and - with an insulation of an insulating material encasing the flat conductor core , - wherein the height (Hk) of the flat conductor core is less than the width (Bk) of the flat conductor core, - wherein the flat conductor core has at least one narrow side (46a-b, 68a-b, 86a-b, 106a-b), which limits the width of the flat conductor core on one side and - wherein the at least one narrow side (46a-b, 68a-b, 86a-b, 106a-b) of the flat conductor core has at least in sections over the length of the flat conductor a partial surface (52a-b, 70a-b, 114a-b), whose contour in the cross-section of the flat conductor core forms a straight section (46a-b, 54a-b, 72a-b, 116a-b), which extends over a part of the height of the flat conductor core , characterised in - that the flat conductor has at least one bend around the at least one narrow side (46a-b, 68a-b, 86a-b, 106a-b) of the flat conductor core and - that the straight section (46a-b, 54a-b, 72a-b, 116a-b) extends over at least 75% and over at most 90% of the height of the flat conductor core .