mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible container comprising: A. four panels adjoined along a common peripheral seal , the common peripheral seal including a first side seal , an opposing second side seal , a top seal and an opposing bottom seal, the four seals forming a chamber ; B. each panel comprising a bottom face , the four bottom faces sealed together to define a bottom section ; C. an upper spout seal extending from the first side seal to the second side seal ; D. a lower spout seal ; E. the upper spout seal comprising an upper spout seal segment and a first chamber seal segment ; F. the lower spout seal comprising a lower spout seal segment and a second chamber seal segment ; and G. the first and second chamber seal segments defining a sealed chamber top, wherein: (i) the first chamber seal segment forms a first upper chamber angle (N) with the first side seal ; (ii) the second chamber seal segment forms a second upper chamber angle (O) with the second side seal ; and (iii) the first upper chamber angle (N) and the second upper chamber angle (O) each have a magnitude from 110° to 150°, characterised in that : the lower spout seal segment is reciprocally aligned with the upper spout seal segment to form a spout , the spout extending from the sealed chamber top to the second side seal . A. four panels adjoined along a common peripheral seal , the common peripheral seal including a first side seal , an opposing second side seal , a top seal and an opposing bottom seal, the four seals forming a chamber ; B. each panel comprising a bottom face , the four bottom faces sealed together to define a bottom section ; C. an upper spout seal extending from the first side seal to the second side seal ; D. a lower spout seal ; E. the upper spout seal comprising an upper spout seal segment and a first chamber seal segment ; F. the lower spout seal comprising a lower spout seal segment and a second chamber seal segment ; and G. the first and second chamber seal segments defining a sealed chamber top, wherein: (i) the first chamber seal segment forms a first upper chamber angle (N) with the first side seal ; (ii) the second chamber seal segment forms a second upper chamber angle (O) with the second side seal ; and (iii) the first upper chamber angle (N) and the second upper chamber angle (O) each have a magnitude from 110° to 150°, (i) the first chamber seal segment forms a first upper chamber angle (N) with the first side seal ; (ii) the second chamber seal segment forms a second upper chamber angle (O) with the second side seal ; and (iii) the first upper chamber angle (N) and the second upper chamber angle (O) each have a magnitude from 110° to 150°,
Method for baking food by means of at least one cooking appliance , at least one cooking chamber being heated by means of at least one heating device and at least one appliance function being set by means of at least one control device , in each case at least one characteristic variable for a temperature and in particular for a crumb temperature of the food being detected at at least two spaced-apart measuring points (151-156) by means of at least one measuring system and being registered as a measured temperature, and the lowest and the highest measured temperature being identified from the registered measured temperatures which are detected at the different measuring points (151-156) at at least one defined measuring time, the lowest measured temperature being used as a minimum temperature and the highest measured temperature being used as a maximum temperature in order to determine a cooking state of the food and at least one device function being set by the control device depending on the determined cooking state, characterised in that at least one temporal gradient of the minimum temperature and/or at least one temporal gradient of the amount of the difference between the minimum temperature and the maximum temperature is determined and compared with at least one threshold value, and in that a temporal gradient below the threshold value is at least one prerequisite for assuming a finished cooking state.
A computer-implemented method for analyzing a target analyte in a sample, comprising: obtaining a data set for the target analyte; wherein the data set is obtained from a signal-generating reaction using a signal-generating means and comprises a plurality of data points including cycle numbers and signal values, amending the data set; generating a non-linear function to the amended data set; determining a fitting accuracy of the non-linear function to the amended data set; and determining the presence or absence of the target analyte in the sample using the fitting accuracy, characterized in that the determination of the presence or absence of the target analyte in the sample is performed by comparing the fitting accuracy with a threshold value for the fitting accuracy to evaluate whether the fitting accuracy exceeds the threshold value. obtaining a data set for the target analyte; wherein the data set is obtained from a signal-generating reaction using a signal-generating means and comprises a plurality of data points including cycle numbers and signal values, amending the data set; generating a non-linear function to the amended data set; determining a fitting accuracy of the non-linear function to the amended data set; and determining the presence or absence of the target analyte in the sample using the fitting accuracy, characterized in that the determination of the presence or absence of the target analyte in the sample is performed by comparing the fitting accuracy with a threshold value for the fitting accuracy to evaluate whether the fitting accuracy exceeds the threshold value.
Euphonium for children, having a total tubing length in accordance with tuning in fundamental pitch Bb, formed in portions by a bell having a first bell end portion and a second bell end portion , a lower bow portion disposed at said second bell end portion and a body portion disposed at said lower bow portion , characterized in that the total height (GH) of the euphonium between the outermost point of said lower bow portion and said first bell end portion is less than 52 cm.
A device for measuring a concentration of nitric oxide in exhaled breath comprising: a sensor for measuring a concentration of nitric oxide, an inlet for receiving exhaled breath, a buffer chamber , a first fluid conduit in fluid connection with the inlet and adapted to lead a first portion (I') of the exhaled breath to the buffer chamber; wherein said buffer chamber has a third fluid conduit leading to the sensor , and an outlet for discarding a first part of exhaled breath received from the first fluid conduit, wherein the buffer chamber is configured to buffer a second part of exhaled breath received from the first fluid conduit , and wherein a pump is arranged in the third fluid conduit for pumping a sample from the buffer chamber to the sensor , buffered in the buffer chamber, characterised in that the device comprises a second fluid conduit in fluid connection with the inlet and adapted to lead a second portion (I") of the exhaled breath to be discarded. a sensor for measuring a concentration of nitric oxide, an inlet for receiving exhaled breath, a buffer chamber , a first fluid conduit in fluid connection with the inlet and adapted to lead a first portion (I') of the exhaled breath to the buffer chamber;
Water heater, in particular a combined heating device, which has at least one water exchange unit , which, when activated, ensures that heating water in a heating line in the water heater, through which the heating water flows, is at least partially replaced by clean heating water from a fresh water source , and which has a control unit , which is connected in a communicating manner to a turbidity sensor , which measures the degree of turbidity of the heating water that is flowing through a turbidity observation portion in the said heating line , the control unit being configured in such a way that it can activate the said water exchange unit , characterized in that the said control unit is configured in such a way that it calibrates the turbidity sensor when the clean heating water flows through the turbidity observation portion as a result of activation of the water exchange unit .
A tunnel monitoring sensor for monitoring environmental conditions in a tunnel comprising a first sensor module which outputs an obscuration signal ; a second sensor module which outputs a first gas concentration signal ; a common housing for the first and second sensor modules ; and an electronic logic unit which is preferably accommodated in the housing , which receives the obscuration signal and the gas concentration signal and which outputs a combined environmental condition signal on the basis of a link of the obscuration signal and the gas concentration signal , wherein the combined environmental condition signal indicates the presence of fog or of fine particulate pollution on an increase in the obscuration signal without a simultaneous increase in the first gas concentration signal and/or the combined environmental condition signal indicates a fire on a fast increase in the obscuration signal and simultaneously in the first gas concentration signal .
A mobile terminal , comprising an application processor, AP , a touch display screen , and a fingerprint recognition device having a fingerprint recognition area in a first area of the touch display screen adapted to detect a first touch operation; the touch display screen being configured to synchronously wake up both the AP and the fingerprint recognition device and to instruct the AP to light up the first area, upon detecting a second touch operation in a second area and that the terminal is in a screen-off state, wherein the second area is an area of the touch display screen other than the first area and has a larger size than the first area; the touch display screen being configured to instruct the fingerprint recognition device to collect fingerprint data of a user upon detecting the first touch operation of the user in the first area lighted up; the fingerprint recognition device being configured to collect the fingerprint data and send the fingerprint data to the AP ; and the AP being configured to compare the fingerprint data with preset fingerprint template data in the mobile terminal , and to light up the whole touch display screen and unlock a lock-screen interface when the fingerprint data is matched with the fingerprint template data. the touch display screen being configured to synchronously wake up both the AP and the fingerprint recognition device and to instruct the AP to light up the first area, upon detecting a second touch operation in a second area and that the terminal is in a screen-off state, wherein the second area is an area of the touch display screen other than the first area and has a larger size than the first area; the touch display screen being configured to instruct the fingerprint recognition device to collect fingerprint data of a user upon detecting the first touch operation of the user in the first area lighted up; the fingerprint recognition device being configured to collect the fingerprint data and send the fingerprint data to the AP ; and the AP being configured to compare the fingerprint data with preset fingerprint template data in the mobile terminal , and to light up the whole touch display screen and unlock a lock-screen interface when the fingerprint data is matched with the fingerprint template data.
A remote controlled demolition robot comprising a controller and at least two actuators controlled through a hydraulic system comprising at least one valve connected to a corresponding actuator for a tool and a pump , characterized in that , the controller is configured to: operate in a first mode wherein the fluid flow is controlled through the at least one valve , wherein said valve is a proportional valve; receive a pressure indication indicating a pressure in the hydraulic system and determine if the pressure in the hydraulic system is above a first mode threshold and/or if a pressure change fulfills a first mode condition, and if so operate in a second mode wherein the at least one valve is in an opened state and the fluid flow is controlled through the pump . operate in a first mode wherein the fluid flow is controlled through the at least one valve , wherein said valve is a proportional valve; receive a pressure indication indicating a pressure in the hydraulic system and determine if the pressure in the hydraulic system is above a first mode threshold and/or if a pressure change fulfills a first mode condition, and if so operate in a second mode wherein the at least one valve is in an opened state and the fluid flow is controlled through the pump .
A method for wireless communication configured to operate in a 3GPP system, comprising: identifying a first transmission time interval, TTI, length for downlink transmissions; identifying a second TTI length for uplink transmissions, the second TTI length being longer than the first TTI length; receiving a plurality of downlink transmissions in adjacent subframes, each downlink transmission being received in a TTI having the first TTI length; determining a hybrid automatic repeat request, HARQ, HARQ ACK/NACK feedback process transmission timing for each received downlink transmission based at least in part on the first TTI length; grouping HARQ ACK/NACK feedback information across subframe boundaries for the plurality of downlink transmissions; and transmitting the grouped HARQ ACK/NACK feedback information in a same subframe having the second TTI length according to the HARQ ACK/NACK feedback process timing associated with the downlink transmission received in the earlier subframe. identifying a first transmission time interval, TTI, length for downlink transmissions; identifying a second TTI length for uplink transmissions, the second TTI length being longer than the first TTI length; receiving a plurality of downlink transmissions in adjacent subframes, each downlink transmission being received in a TTI having the first TTI length; determining a hybrid automatic repeat request, HARQ, HARQ ACK/NACK feedback process transmission timing for each received downlink transmission based at least in part on the first TTI length; grouping HARQ ACK/NACK feedback information across subframe boundaries for the plurality of downlink transmissions; and transmitting the grouped HARQ ACK/NACK feedback information in a same subframe having the second TTI length according to the HARQ ACK/NACK feedback process timing associated with the downlink transmission received in the earlier subframe.
Weft feeder device with a winding drum having an adjustable winding circumference for storing weft thread , the winding drum comprising a base structure and at least one moveable finger , wherein the at least one moveable finger is mounted on the base structure so as to be moveable over the full length of a movement path, wherein the weft feeder device comprises a sensor device , and wherein the sensor device comprises a first sensor system for measuring a relative movement of at least one moving element of the weft feeder device , characterized in that the sensor device comprises a second sensor system for determining a first reference position of at least one moving element of the weft feeder device , and in that the sensor device is arranged for determining the actual position of the at least one moveable finger based on the determined first reference position and the measured relative movement.
A steering handle with heating and contact detection for a vehicle, wherein the steering handle has a core element , a control device , and at least one functional layer arranged on the core element , wherein the functional layer has at least one electrically conductive functional conductor running in the functional layer as a heating wire for heating the steering handle , which functional conductor is a sensor element of a sensor for detecting contact with the steering handle , wherein the control device is electrically connected to at least one functional conductor , has a heating control circuit for heating the steering handle via the functional conductor as well as a sensor control circuit for detecting contact with the steering handle via the functional conductor , and is designed to control the functional conductor alternately with the heating control circuit in order to heat the steering handle and with the sensor control circuit in order to detect contact with the steering handle , characterized in that the functional conductor is formed from a plurality of individual wires , and the individual wires are arranged so as to run at least partially separately from one another. wherein the steering handle has a core element , a control device , and at least one functional layer arranged on the core element , wherein the functional layer has at least one electrically conductive functional conductor running in the functional layer as a heating wire for heating the steering handle , which functional conductor is a sensor element of a sensor for detecting contact with the steering handle , wherein the control device is electrically connected to at least one functional conductor , has a heating control circuit for heating the steering handle via the functional conductor as well as a sensor control circuit for detecting contact with the steering handle via the functional conductor , and is designed to control the functional conductor alternately with the heating control circuit in order to heat the steering handle and with the sensor control circuit in order to detect contact with the steering handle , characterized in that the functional conductor is formed from a plurality of individual wires , and the individual wires are arranged so as to run at least partially separately from one another.
A prioritization method for random access, comprising the following steps: receiving one or more first packet flow for transmission, wherein the one or more first packet flow is assigned a respective access category queue , initiating a random access procedure for the first packet flow, receiving a packet of a second packet flow for transmission, wherein the second packet flow is assigned an access category queue having priority over the access category queue assigned to the first packet flow, interrupting the random access procedure for the first packet flow, and performing a random access procedure for the received packet of the second packet flow wherein idle time slots previously sensed by the random access procedure for the first packet flow are reused for the random access procedure for the second packet flow , characterized in that the performing of the random access procedure for the received packet of the second packet flow further comprises: determining a number of time slots, M, required to be idle during a time interval before a back-off time for the random access procedure for the second packet flow, obtaining a number of idle time slots, N, previously sensed by the random access procedure for the first packet flow, and decrementing the number of time slots, M, required to be idle by the number of idle time slots, N, previously sensed. receiving one or more first packet flow for transmission, wherein the one or more first packet flow is assigned a respective access category queue , initiating a random access procedure for the first packet flow, receiving a packet of a second packet flow for transmission, wherein the second packet flow is assigned an access category queue having priority over the access category queue assigned to the first packet flow, interrupting the random access procedure for the first packet flow, and performing a random access procedure for the received packet of the second packet flow wherein idle time slots previously sensed by the random access procedure for the first packet flow are reused for the random access procedure for the second packet flow , characterized in that the performing of the random access procedure for the received packet of the second packet flow further comprises: determining a number of time slots, M, required to be idle during a time interval before a back-off time for the random access procedure for the second packet flow, obtaining a number of idle time slots, N, previously sensed by the random access procedure for the first packet flow, and decrementing the number of time slots, M, required to be idle by the number of idle time slots, N, previously sensed. determining a number of time slots, M, required to be idle during a time interval before a back-off time for the random access procedure for the second packet flow, obtaining a number of idle time slots, N, previously sensed by the random access procedure for the first packet flow, and decrementing the number of time slots, M, required to be idle by the number of idle time slots, N, previously sensed.
A connector , adapted to be disposed on a circuit board , wherein the connector comprises: a base , comprising a slot (S), wherein the base is fixed on the circuit board ; a transmission interface , comprising a plugboard and a clamping portion , wherein the clamping portion is clamped in the slot (S) and a portion of the plugboard protrudes out of the base ; a shielding cover , having an accommodation space (AS), wherein the accommodation space (AS) is configured to accommodate the base and the transmission interface ; and a shielding layer , electroplated on an inner side surface of the shielding cover , wherein the shielding cover covers the base and the transmission interface and is configured to block electromagnetic waves generated by the transmission interface . a base , comprising a slot (S), wherein the base is fixed on the circuit board ; a transmission interface , comprising a plugboard and a clamping portion , wherein the clamping portion is clamped in the slot (S) and a portion of the plugboard protrudes out of the base ; a shielding cover , having an accommodation space (AS), wherein the accommodation space (AS) is configured to accommodate the base and the transmission interface ; and a shielding layer , electroplated on an inner side surface of the shielding cover , wherein the shielding cover covers the base and the transmission interface and is configured to block electromagnetic waves generated by the transmission interface .