mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioner comprising: a case provided with a first and a second indoor suction port , and a first and a second indoor discharge port ; an air conditioning unit to operate according to a heat pump cycle, the air conditioning unit provided with a first heat exchanger to operate as one of an evaporator and a condenser, and a second heat exchanger to operate as the other of the evaporator and the condenser; a first indoor flow channel connected between the first indoor suction port and the first indoor discharge port , the first indoor flow channel to allow an indoor air suctioned through the first indoor suction port to pass through the first heat exchanger and discharge through the first indoor discharge port ; and a second indoor flow channel connected between the second indoor suction port and the second indoor discharge port , the second indoor flow channel to allow the indoor air suctioned through the second indoor suction port to pass through the second heat exchanger and discharge through the second indoor discharge port ; characterized in that the air conditioner further comprises a condensing unit to receive regenerated air, heat-exchanged with the condenser, from one of the first indoor flow channel and the second indoor flow channel , and perform a heat exchange between the regenerated air and a cooling fluid having a lower temperature than the regenerated air so as to condense moisture contained in the regenerated air. a case provided with a first and a second indoor suction port , and a first and a second indoor discharge port ; an air conditioning unit to operate according to a heat pump cycle, the air conditioning unit provided with a first heat exchanger to operate as one of an evaporator and a condenser, and a second heat exchanger to operate as the other of the evaporator and the condenser; a first indoor flow channel connected between the first indoor suction port and the first indoor discharge port , the first indoor flow channel to allow an indoor air suctioned through the first indoor suction port to pass through the first heat exchanger and discharge through the first indoor discharge port ; and a second indoor flow channel connected between the second indoor suction port and the second indoor discharge port , the second indoor flow channel to allow the indoor air suctioned through the second indoor suction port to pass through the second heat exchanger and discharge through the second indoor discharge port ; characterized in that the air conditioner further comprises a condensing unit to receive regenerated air, heat-exchanged with the condenser, from one of the first indoor flow channel and the second indoor flow channel , and perform a heat exchange between the regenerated air and a cooling fluid having a lower temperature than the regenerated air so as to condense moisture contained in the regenerated air.
A method for preparing an eggshell catalyst comprising the steps of: (i) preparing a calcined shaped alkaline earth metal aluminate catalyst support, (ii) treating the calcined shaped alkaline earth metal aluminate support with a gas containing water vapour to form a hydrated support, wherein the gas containing water vapour has an absolute humidity in the range of 45 to 300 g/m 3 , (iii) without an intervening drying step, impregnating the hydrated support with an acidic solution containing one or more catalytic metal compounds and drying the impregnated support, (iv) calcining the dried impregnated support, to form a calcined catalyst having a catalytic metal oxide concentrated at the surface of the support and (v) optionally repeating steps (ii), (iii) and (iv).
An apparatus to be implemented in a user equipment, UE , the apparatus comprising: processor circuitry including encoding circuitry and decoding circuitry, the decoding circuitry configured to: receive and decode a radio resource control, RRC, message from a source evolved nodeB, eNB (110-1), to obtain a handover, HO, command that identifies a target eNB (110-2); receive and decode one or more downlink transmissions from the source eNB (110-1) after receipt of the HO command and until receipt of a Random Access Response, RAR, from the target eNB (110-2); receive and decode the RAR from the target eNB (110-2); and the encoding circuitry configured to encode another RRC message for transmission to the target eNB (110-2), wherein the processor circuitry is configured to implement a security algorithm to: decrypt, using a first key, the RRC message to obtain the HO command and the one or more downlink transmissions, wherein the first key was derived during an attachment procedure with the source eNB (110-1); generate a second key for communication with the target eNB (110-2); and encrypt, using the second key, the another RRC message. processor circuitry including encoding circuitry and decoding circuitry, the decoding circuitry configured to: receive and decode a radio resource control, RRC, message from a source evolved nodeB, eNB (110-1), to obtain a handover, HO, command that identifies a target eNB (110-2); receive and decode one or more downlink transmissions from the source eNB (110-1) after receipt of the HO command and until receipt of a Random Access Response, RAR, from the target eNB (110-2); receive and decode the RAR from the target eNB (110-2); and receive and decode a radio resource control, RRC, message from a source evolved nodeB, eNB (110-1), to obtain a handover, HO, command that identifies a target eNB (110-2); receive and decode one or more downlink transmissions from the source eNB (110-1) after receipt of the HO command and until receipt of a Random Access Response, RAR, from the target eNB (110-2); receive and decode the RAR from the target eNB (110-2); and the encoding circuitry configured to encode another RRC message for transmission to the target eNB (110-2), wherein the processor circuitry is configured to implement a security algorithm to: decrypt, using a first key, the RRC message to obtain the HO command and the one or more downlink transmissions, wherein the first key was derived during an attachment procedure with the source eNB (110-1); generate a second key for communication with the target eNB (110-2); and encrypt, using the second key, the another RRC message. decrypt, using a first key, the RRC message to obtain the HO command and the one or more downlink transmissions, wherein the first key was derived during an attachment procedure with the source eNB (110-1); generate a second key for communication with the target eNB (110-2); and encrypt, using the second key, the another RRC message.
A cooking management method for scheduling a cooking operation of a food processor comprising the following steps: - Determining an entertainment program of an entertainment device , - Determining a scheduling interval in which at least a user of the food processor is at least partially bound to the entertainment device for enjoying the entertainment program , - Creating a schedule of the cooking operation as a function of the scheduling interval . - Determining an entertainment program of an entertainment device , - Determining a scheduling interval in which at least a user of the food processor is at least partially bound to the entertainment device for enjoying the entertainment program , - Creating a schedule of the cooking operation as a function of the scheduling interval .
Method for managing the updating of at least one microcode (MC1, MC2) stored in at least one program memory (MP1, MP2), and intended to be executed by at least one central processing unit (CPU1, CPU2) of a processing unit (UT), said processing unit (UT) including a memory controller (CM1, CM2) associated with each program memory (MP1, MP2), and at least one hardware peripheral (PM1, PM2, PM3), the method comprising, in response to at least one request (DMC1, DMC2) to update each microcode, transmitting, to each hardware peripheral (PM1, PM2), an overall authorisation request signal (SGDA) obtained from a base authorisation request signal (SEDA1, SEDA2) generated by each corresponding memory controller (CM1, CM2), transmitting an overall authorisation signal (SGA) obtained from at least one base authorisation signal (SEA1, SEA2, SEA3) generated by at least one of the hardware peripherals (PM1, PM2, PM3) in response to said overall authorisation request signal (SGDA) and after satisfying a predetermined base condition within said at least one of the hardware peripherals, updating each microcode (MC1, MC2) by the corresponding memory controller (CM1, CM2) only after receipt of said overall authorisation signal (SGA), wherein the satisfaction of said predetermined base condition (CEP) comprises triggering the execution, by said at least one of the hardware peripherals (PM1, PM2 or PM3) of at least one operation following receipt, by said at least one of the peripherals (PM1, PM2, PM3) of a request (RP1, RP2, RP3) to execute this operation.
A piezoelectric material comprising : a perovskite-type metal oxide represented by the following general formula ; and 0.04 mol% or more to 2.00 mol% or less of Cu with respect to 1 mol of the perovskite-type metal oxide; (K v Bi w Ba 1-v-w ) 1-y Na x (Nb y Ti y-y )O 3 where relationships of 0<v≤0.39, 0<w≤0.39, 0.9≤w/v≤1.1, 0.80≤x≤0.95, 0.85≤y≤0.95 and x<y are satisfied. a perovskite-type metal oxide represented by the following general formula ; and 0.04 mol% or more to 2.00 mol% or less of Cu with respect to 1 mol of the perovskite-type metal oxide; (K v Bi w Ba 1-v-w ) 1-y Na x (Nb y Ti y-y )O 3 where relationships of 0<v≤0.39, 0<w≤0.39, 0.9≤w/v≤1.1, 0.80≤x≤0.95, 0.85≤y≤0.95 and x<y are satisfied.
Aquatic shoe consisting of a shoe body , a pair of wings and a float , the wings being symmetrical, glued together, and binded to the shoe body , below the shoe, so as to constitute a part of the sole of the shoe, the float being integrated below the wings , at the level of the sole , such that one of its faces covers the sole , the wings being fixed by a pivot link on both sides of the shoe, and the wings having a curved rim which is curved over the entire length of the shoe, the curvature being accentuated towards the front of the shoe like a kind of beak so that the wings descend as the foot goes up in the water and that they go up when the foot goes down into the water and so that they return to their initial position.
A surface-modified alginate micro-capsule having a core-shell structure in which the core is a liquid phase alginate or a mixture of liquid phase alginate and alginate hydrogel, and the shell is alginate hydrogel crosslinked with epigallocatechin gallate dimers.
An access control system for capturing a facial image of a person within an access area, which is delimited by a ceiling element , comprising: an image sensor , which is configured to capture the facial image of the person along an optical axis , wherein the image sensor is aligned to the ceiling element such, that the optical axis of the image sensor and a perpendicular axis of the ceiling element running through the ceiling element enclose an angle (α), which is less than 90°, and an identification device, which is configured to compare the facial image of the person with a reference facial image of the person in order to identify the person, wherein the image sensor is arranged below a facial area of the person, and wherein the image sensor is configured to capture the facial area of the person, characterized in that the access control system comprises the ceiling element , wherein the ceiling element has predetermined properties, wherein the image sensor is aligned to capture with the facial image of the person at least a section of the ceiling element , wherein the ceiling element is formed as an image background for the capturing of the facial image of the person, so that the ceiling element serves as an image background for the image capturing. an image sensor , which is configured to capture the facial image of the person along an optical axis , wherein the image sensor is aligned to the ceiling element such, that the optical axis of the image sensor and a perpendicular axis of the ceiling element running through the ceiling element enclose an angle (α), which is less than 90°, and an identification device, which is configured to compare the facial image of the person with a reference facial image of the person in order to identify the person, wherein the image sensor is arranged below a facial area of the person, and wherein the image sensor is configured to capture the facial area of the person, characterized in that the access control system comprises the ceiling element , wherein the ceiling element has predetermined properties, wherein the image sensor is aligned to capture with the facial image of the person at least a section of the ceiling element , wherein the ceiling element is formed as an image background for the capturing of the facial image of the person, so that the ceiling element serves as an image background for the image capturing.
A method implemented on at least one machine each of which has at least one processor, storage, and a communication platform connected to a network, the method comprising: obtaining one or more alert signals corresponding to one or more alert events of one or more urgency levels at a first time of interest; obtaining a network condition of the network at the first time of interest, wherein the network condition of the network at the first time of interest includes a round-trip time at the first time of interest, a shortest round-trip time of a first time duration that encompasses the first time of interest, and an empirical value of the network condition at the first time of interest; performing a congestion assessment, CGA, at the first time of interest based on the network condition, wherein the CGA is determined based on the round-trip time at the first time of interest and a weight of the round-trip time at the first time of interest, the shortest round-trip time of the first time duration and the empirical value of the network condition at the first time of interest and a weight of the empirical value of the network condition; determining a first communication protocol for sending the one or more alert signals based on the CGA, wherein said first communication protocol determines urgency levels of alert signals to be sent; and causing, based on the first communication protocol and the urgency levels of the one or more alert signals, a first batch of alert signals of the one or more alert signals to be sent via the network. obtaining one or more alert signals corresponding to one or more alert events of one or more urgency levels at a first time of interest; obtaining a network condition of the network at the first time of interest, wherein the network condition of the network at the first time of interest includes a round-trip time at the first time of interest, a shortest round-trip time of a first time duration that encompasses the first time of interest, and an empirical value of the network condition at the first time of interest; performing a congestion assessment, CGA, at the first time of interest based on the network condition, wherein the CGA is determined based on the round-trip time at the first time of interest and a weight of the round-trip time at the first time of interest, the shortest round-trip time of the first time duration and the empirical value of the network condition at the first time of interest and a weight of the empirical value of the network condition; determining a first communication protocol for sending the one or more alert signals based on the CGA, wherein said first communication protocol determines urgency levels of alert signals to be sent; and causing, based on the first communication protocol and the urgency levels of the one or more alert signals, a first batch of alert signals of the one or more alert signals to be sent via the network.
A polypeptide comprising an amino acid sequence of SEQ ID NO: 4, wherein: (a) the amino acid residue at position 180 of SEQ ID NO:4 is substituted with an amino acid selected from the group consisting of glycine, proline, serine, and glutamic acid; and (b) the amino acid residue at position 98 of SEQ ID NO: 4 is substituted with arginine or the amino acid residue at position 171 of SEQ ID NO: 4 is glycine, and wherein the polypeptide is capable of lowering blood glucose levels in a mammal. (a) the amino acid residue at position 180 of SEQ ID NO:4 is substituted with an amino acid selected from the group consisting of glycine, proline, serine, and glutamic acid; and (b) the amino acid residue at position 98 of SEQ ID NO: 4 is substituted with arginine or the amino acid residue at position 171 of SEQ ID NO: 4 is glycine,
A grit boot mask tool , comprising: an enclosure internally shaped to receive a root and at least a portion of a platform of a blade to protect the root and the at least a portion of a platform from grit blasting; a door ; and a lock assembly that retains the door to the enclosure , characterised in that : the door is hinged with respect to the enclosure and the lock assembly comprises a latch that is configured to be retained in a locked position by a spring bias; and a knob to push the latch away from the enclosure to overcome the spring bias and rotate the latch , wherein a quarter turn of the knob will lock and unlock the lock assembly . an enclosure internally shaped to receive a root and at least a portion of a platform of a blade to protect the root and the at least a portion of a platform from grit blasting; a door ; and a lock assembly that retains the door to the enclosure , characterised in that : the door is hinged with respect to the enclosure and the lock assembly comprises a latch that is configured to be retained in a locked position by a spring bias; and the door is hinged with respect to the enclosure and the lock assembly comprises a latch that is configured to be retained in a locked position by a spring bias; and a knob to push the latch away from the enclosure to overcome the spring bias and rotate the latch , wherein a quarter turn of the knob will lock and unlock the lock assembly .
A method for synchronizing multiple clock domains from two or more clients or common pluggable interfaces connected to multiple interfaces on one or more ingress line cards on a first transport network element to multiple interfaces on one or more egress line cards on a second transport network element , the method comprising: generating information representing each of the clock domains received from the ingress line cards, wherein generating the information comprises generating timestamps for packets and a client specific packet indicating the number of client bits in a period of time in a corresponding clock domain; transmitting the information to the egress line cards on the second transport network element ; generating a synchronized clock on each interface of the one or more egress line cards using the information such that the synchronized clock on at least one interface of the egress line card is different from the synchronized clock on another interface of the same or a different egress line card ,wherein generating a synchronized clock comprises comparing the number of client bits received within a period of time with respect to the timestamps. generating information representing each of the clock domains received from the ingress line cards, wherein generating the information comprises generating timestamps for packets and a client specific packet indicating the number of client bits in a period of time in a corresponding clock domain; transmitting the information to the egress line cards on the second transport network element ; generating a synchronized clock on each interface of the one or more egress line cards using the information such that the synchronized clock on at least one interface of the egress line card is different from the synchronized clock on another interface of the same or a different egress line card ,wherein generating a synchronized clock comprises comparing the number of client bits received within a period of time with respect to the timestamps.
A method for data reading comprising the steps of: capturing, via a data reader , a first set of images of an item bearing an optical code ; performing an analysis of the first set of images to determine whether the item is in a recognized item class consisting of objects bearing an optical code a) on a display screen, b) on or under a glass surface, c) on a metal surface having a reflectance of at least 30%, and d) on a plastic surface having a reflectance of at least 30%; automatically setting adjusted operating parameters of the data reader based on the analysis of the first set of images of whether the item is in the recognized item class; capturing, via the data reader , a second set of images of the item bearing the optical code using the adjusted operating parameters; and processing the second set of images to decode the optical code appearing in the second set of images of the item . capturing, via a data reader , a first set of images of an item bearing an optical code ; performing an analysis of the first set of images to determine whether the item is in a recognized item class consisting of objects bearing an optical code a) on a display screen, b) on or under a glass surface, c) on a metal surface having a reflectance of at least 30%, and d) on a plastic surface having a reflectance of at least 30%; automatically setting adjusted operating parameters of the data reader based on the analysis of the first set of images of whether the item is in the recognized item class; capturing, via the data reader , a second set of images of the item bearing the optical code using the adjusted operating parameters; and processing the second set of images to decode the optical code appearing in the second set of images of the item .
A light-emitting marker particle comprising a light-emitting particle core comprising a silica matrix, first surface groups covalently bound to the silica of the light-emitting particle core and second surface groups covalently bound to the silica of the light-emitting particle core wherein: the light-emitting core comprises the silica matrix and a light-emitting material; the first surface group comprises a polar group; the first surface group is an inert surface group which does not bind to a biomolecule when brought into contact with the biomolecule in water at 25°C; the second surface group comprises a biomolecule binding group; and a number of moles of the second surface group is less than 10% of a total number of moles of the first and second surface groups.
A method for random access, the method being performed by a wireless device , the method comprising: transmitting (S102) a random access preamble to a network node ; determining (S104) a valid starting subframe of a random access response window for monitoring a common search space for a random access response from the network node, wherein the valid subframe for starting the random access response window is determined according to 10 n f + ⌊ n s / 2 ⌋ mod T MPDCCH = 0 , where n f denotes system frame number, where n s denotes slot number within radio frame, where T MPDCCH = R max · G , where R max is a maximum repetition level, and where G is an integer; and monitoring (S112) the common search space for the random access response only during the random access response window. transmitting (S102) a random access preamble to a network node ; determining (S104) a valid starting subframe of a random access response window for monitoring a common search space for a random access response from the network node, wherein the valid subframe for starting the random access response window is determined according to 10 n f + ⌊ n s / 2 ⌋ mod T MPDCCH = 0 , where n f denotes system frame number, where n s denotes slot number within radio frame, where T MPDCCH = R max · G , where R max is a maximum repetition level, and where G is an integer; and monitoring (S112) the common search space for the random access response only during the random access response window.