mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid radiation curable resin comprising: A) from 0 to 12 wt.% of a cycloaliphatic epoxide having a linking ester group; B) from 30 to 65 wt.% of one or more epoxy functional components other than A); C) from 10 to 30 wt.% of one or more oxetanes; D) from 1 to 10 wt.% of one or more polyols; E) from 2 to 20 wt.% of one or more radically curable (meth)acrylate components; F) from 2 to 12 wt.% of one or more impact modifiers; G) from 0.1 to 8 wt.% of one or more free radical photoinitiators; and H) from 0.1 to 8 wt.% of one or more cationic photoinitiators; wherein the liquid radiation curable resin has a viscosity at 30 °C of from 600 mPa·s (600 cps) to 1300 mPa·s (1300 cps), and wherein the liquid radiation curable resin, after full cure, has a Young's modulus of from 2.25 GPa to 2.80 GPa, where viscosity and Young's modulus are measured according to the methods given in the present specification. A) from 0 to 12 wt.% of a cycloaliphatic epoxide having a linking ester group; B) from 30 to 65 wt.% of one or more epoxy functional components other than A); C) from 10 to 30 wt.% of one or more oxetanes; D) from 1 to 10 wt.% of one or more polyols; E) from 2 to 20 wt.% of one or more radically curable (meth)acrylate components; F) from 2 to 12 wt.% of one or more impact modifiers; G) from 0.1 to 8 wt.% of one or more free radical photoinitiators; and H) from 0.1 to 8 wt.% of one or more cationic photoinitiators;
Method of operating a feedback radio node in a wireless communication network, the method comprising transmitting acknowledgement signaling according to an acknowledgement codebook, the acknowledgement codebook representing acknowledgement information based on an acknowledgement association window, the acknowledgement association window being a window in time domain comprising groups of OFDM symbols, each group being associated to an acknowledgement information substructure of the acknowledgement codebook, wherein different groups comprise different number of symbols, wherein each acknowledgement information substructure comprises one or more bits.
A method for a wireless communication device adapted to communicate using a radio access transceiver alternatingly in accordance with a first radio access technology and in accordance with a second radio access technology , the method characterized by : allocating , by the wireless communication device, a number of time periods during communication in accordance with the first radio access technology to reception of a paging signal of the second radio access technology, wherein the number of time periods is dynamically variable based on a result of a decoding of at least one previous paging signal of the second radio access technology.
A method of capturing aircraft sensor data from an embedded aircraft system , the method comprising: loading a configuration file to a processor ; characterized in that the configuration file includes configuration data that defines a data capture event based on data monitored by the processor, a data capture period which defines for said data capture event a time period for which the data captured is stored in a volatile memory, and data identifiers; and wherein the data identifiers include the aircraft sensor data which should be stored in the volatile memory; storing aircraft sensor data based upon the data identifiers in the volatile memory ; and upon the processor detecting an occurrence of the data capture event, continuing the storing of aircraft sensor data until the time period is complete and subsequently storing contents of the volatile memory to a non-volatile memory . loading a configuration file to a processor ; characterized in that the configuration file includes configuration data that defines a data capture event based on data monitored by the processor, a data capture period which defines for said data capture event a time period for which the data captured is stored in a volatile memory, and data identifiers; and wherein the data identifiers include the aircraft sensor data which should be stored in the volatile memory; storing aircraft sensor data based upon the data identifiers in the volatile memory ; and upon the processor detecting an occurrence of the data capture event, continuing the storing of aircraft sensor data until the time period is complete and subsequently storing contents of the volatile memory to a non-volatile memory .
An installation for degradation testing of samples exposed to a melted medium, characterized by comprising: - a modular testing chamber with fastening means for the sample system of interest; - an auxiliary circuit for effluent gases and a reservoir for replenishing and modulating the gaseous atmosphere; - a heated tank for said melted medium , thermal adjustment means , and connected to the testing chamber forming a closed circuit that includes a adjustable drive system for the melt; and - a flanged in-line port adapted for the insertion of complementary and auxiliary experimental systems. - a modular testing chamber with fastening means for the sample system of interest; - an auxiliary circuit for effluent gases and a reservoir for replenishing and modulating the gaseous atmosphere; - a heated tank for said melted medium , thermal adjustment means , and connected to the testing chamber forming a closed circuit that includes a adjustable drive system for the melt; and - a flanged in-line port adapted for the insertion of complementary and auxiliary experimental systems.
A portable system that allows blind or visually impaired persons to interpret the surrounding environment by sound or touch, comprising: - two cameras , separate from one another and configured to capture an image of the environment simultaneously, - generating means for generating sound and/or touch output signals; - processing means connected to the cameras and to the generating means for generating sound and/or touch signals, characterized in that said processing means are configured to combine the images captured in real time and to process the information relating to the depth of the elements comprised in at least one vertical band in the combined image, said vertical band substantially covering the total height of the combined image, and said processing means also being configured to: divide the vertical band into one or more regions; define a sound or touch signal, in each region, according to the depth of the region and the height of the region; and define a sound or touch output signal based on the sound or touch signals in each region of the vertical band. - two cameras , separate from one another and configured to capture an image of the environment simultaneously, - generating means for generating sound and/or touch output signals; - processing means connected to the cameras and to the generating means for generating sound and/or touch signals,
Aircraft seat device, with at least one backrest (1 0a; 10b), with at least one backrest bridge (16a; 16b) which at least substantially spans the backrest (1 0a; 10b) at least in a transverse direction, and with at least one flap element (14a; 14b) which is arranged pivotably in the region of the backrest bridge (16a; 16b), wherein the backrest forms at least one storage container , which is configured at least for a storage of literature and/or of personal objects and which is arranged at least partially in a region behind the backrest bridge , wherein a filling opening of the storage container , through which literature and/or personal objects is/are introducible into the storage container , is arranged between the backrest bridge and a rear side of the backrest , characterised in that the at least one flap element (14a; 14b) covers, at least in a closed state, at least a backrest region (46a; 46b) above the backrest bridge (16a; 16b), wherein the covered backrest region (46a; 46b) has at least a height extent of at least 20 mm and the flap element is configured, in the closed state, to at least partially close the filled storage container and for this purpose covers, and thus substantially closes, at least the filling opening of the storage container . with at least one backrest (1 0a; 10b), with at least one backrest bridge (16a; 16b) which at least substantially spans the backrest (1 0a; 10b) at least in a transverse direction, and with at least one flap element (14a; 14b) which is arranged pivotably in the region of the backrest bridge (16a; 16b), wherein the backrest forms at least one storage container , which is configured at least for a storage of literature and/or of personal objects and which is arranged at least partially in a region behind the backrest bridge , wherein a filling opening of the storage container , through which literature and/or personal objects is/are introducible into the storage container , is arranged between the backrest bridge and a rear side of the backrest , characterised in that the at least one flap element (14a; 14b) covers, at least in a closed state, at least a backrest region (46a; 46b) above the backrest bridge (16a; 16b), wherein the covered backrest region (46a; 46b) has at least a height extent of at least 20 mm and the flap element is configured, in the closed state, to at least partially close the filled storage container and for this purpose covers, and thus substantially closes, at least the filling opening of the storage container .
A method for adjusting the bandwidth of memory accessed by a processor , comprising: collecting information that corresponds to the memory bandwidth requirement of the processor; and dynamically scaling the memory bandwidth by activating or deactivating at least one terminal among a plurality of input and output terminals of the memory for data transmission to and from the processor , based on the determined requirement; characterized in that the information collected is the cache miss rate of the processor and/or the number of instructions per cycle processed by the processor, in that this collected information is used to determine the dynamic performance of the processor, and in that the dynamic scaling of the memory bandwidth is based on the determined dynamic performance. collecting information that corresponds to the memory bandwidth requirement of the processor; and dynamically scaling the memory bandwidth by activating or deactivating at least one terminal among a plurality of input and output terminals of the memory for data transmission to and from the processor , based on the determined requirement; characterized in that the information collected is the cache miss rate of the processor and/or the number of instructions per cycle processed by the processor, in that this collected information is used to determine the dynamic performance of the processor, and in that the dynamic scaling of the memory bandwidth is based on the determined dynamic performance.
An antibody or antigen binding fragment thereof that specifically recognizes or binds an isolated or recombinant polypeptide that consists of an amino acid sequence selected from: (a) SEQ ID NO. 14 (RTGRNPQTGAEIQIAASKVP); (b) SEQ ID NO. 15 (TLSAKEIENMVKDILEFISQ); (c) SEQ ID NO. 16 (RGFGSFSLHHRQPRLGRNPK); (d) SEQ ID NO. 17 (FSLHHRQPRLGRNPKTGDSV); (e) SEQ ID NO. 33 (KKQAKAALEATLDAITASLKEG); or (f) SEQ ID NO. 31 (VNERAARTGRNPQTGAEIQIAA). (a) SEQ ID NO. 14 (RTGRNPQTGAEIQIAASKVP); (b) SEQ ID NO. 15 (TLSAKEIENMVKDILEFISQ); (c) SEQ ID NO. 16 (RGFGSFSLHHRQPRLGRNPK); (d) SEQ ID NO. 17 (FSLHHRQPRLGRNPKTGDSV); (e) SEQ ID NO. 33 (KKQAKAALEATLDAITASLKEG); or (f) SEQ ID NO. 31 (VNERAARTGRNPQTGAEIQIAA).
Melt conducting system for in-mould decoration (IMD) or in-mould labelling (IML) processes for back injection of films in flat plastic parts provided with functional layers, with at least one strip or film linkage and a runner , characterised in that the melt conducting system has an accumulation chamber between the linkage and the runner , with an asymmetrical cross-section that is wider than the runner perpendicular to the flow direction of the injected material.
A hot-water supply apparatus comprising: a hot-water supply tank ; a heat-pump type refrigeration cycle which comprises a compressor configured to compress and discharge refrigerant, and in which the compressor , a four-way valve , a water heat exchanger , an open/close valve , a pressure reducing unit and an outdoor heat exchanger are connected in this order; a bypass connected between the open/close valve and the pressure reducing unit and between the four-way valve and the water heat exchanger ; a circulating pump configured to circulate water in the supply-water tank after making the water pass through the water heat exchanger ; a refrigerant temperature sensor configured to detect a temperature of the refrigerant when the refrigerant flows between the water heat exchanger and the open/close valve ; and a control section configured to perform a defrosting operation of defrosting the outdoor heat exchanger by activating a defrosting circuit in which the refrigerant discharged from the compressor flows through the four-way valve , the outdoor heat exchanger , the pressure reducing unit , the bypass and the four-way valve and returns to the compressor , and also configured to operate the circulating pump in a case where the temperature detected by the refrigerant temperature sensor lowers to be less than a set value during the defrosting operation. a hot-water supply tank ; a heat-pump type refrigeration cycle which comprises a compressor configured to compress and discharge refrigerant, and in which the compressor , a four-way valve , a water heat exchanger , an open/close valve , a pressure reducing unit and an outdoor heat exchanger are connected in this order; a bypass connected between the open/close valve and the pressure reducing unit and between the four-way valve and the water heat exchanger ; a circulating pump configured to circulate water in the supply-water tank after making the water pass through the water heat exchanger ; a refrigerant temperature sensor configured to detect a temperature of the refrigerant when the refrigerant flows between the water heat exchanger and the open/close valve ; and a control section configured to perform a defrosting operation of defrosting the outdoor heat exchanger by activating a defrosting circuit in which the refrigerant discharged from the compressor flows through the four-way valve , the outdoor heat exchanger , the pressure reducing unit , the bypass and the four-way valve and returns to the compressor , and also configured to operate the circulating pump in a case where the temperature detected by the refrigerant temperature sensor lowers to be less than a set value during the defrosting operation.
Method for detecting one or more combined activities of a driver of a vehicle, the method comprising: receiving, by a first activity fusion module of a first layer , one or more activities of a body part of a driver from each activity recognition module of a plurality of activity recognition modules of the first layer using a common data format; determining, by a first activity fusion module of the first layer , one or more combined activities from the one or more received activities; sending, by the first activity fusion module of the first layer , the one or more combined activities to a second activity fusion module of a second layer using the common data format; receiving, by the second activity fusion module of the second layer , one or more combined activities of a driver of a vehicle from each activity recognition module of a plurality of activity recognition modules of the second layer using the common data format; receiving, by the second activity fusion module of the second layer , the one or more combined activities from the activity fusion module of the first layer using the common data format; and determining, by the second activity fusion module of the second layer ,one or more combined activities of the one or more received activities of each of the activity recognition modules of the second layer and the one or more received combined activities of the first activity fusion module of the first layer . receiving, by a first activity fusion module of a first layer , one or more activities of a body part of a driver from each activity recognition module of a plurality of activity recognition modules of the first layer using a common data format; determining, by a first activity fusion module of the first layer , one or more combined activities from the one or more received activities; sending, by the first activity fusion module of the first layer , the one or more combined activities to a second activity fusion module of a second layer using the common data format; receiving, by the second activity fusion module of the second layer , one or more combined activities of a driver of a vehicle from each activity recognition module of a plurality of activity recognition modules of the second layer using the common data format; receiving, by the second activity fusion module of the second layer , the one or more combined activities from the activity fusion module of the first layer using the common data format; and determining, by the second activity fusion module of the second layer ,one or more combined activities of the one or more received activities of each of the activity recognition modules of the second layer and the one or more received combined activities of the first activity fusion module of the first layer .
An air compression device (100; 100A; 100B) comprising: a first compressor (210; 210 A; 210B) including a first port wall (213; 213A; 213B) in which a first suction port (214; 214B) is formed; a second compressor (220; 220A; 220B) including a second port wall (223; 223A; 223B) in which a second suction port (224; 224B) is formed; wherein the first port wall (213; 213A; 213B) and the second port wall (223; 223A; 223B) are arranged to face each other, wherein the air compression device (100; 100A; 100B), further comprising a suction pipe (300; 300B) which guides an air to the first suction port (214; 214B) and the second suction port (224; 224B), wherein the suction pipe (300; 300B) is arranged between the first port wall (213; 213A; 213B) and the second port wall (223; 223A; 223B), wherein the suction pipe includes a suction duct extending along the first port wall , a connecting pipe including a first end connected to the suction duct and a second end connected to the first suction port and a trim seal which seals an interspace between the suction duct and the first end . a first compressor (210; 210 A; 210B) including a first port wall (213; 213A; 213B) in which a first suction port (214; 214B) is formed; a second compressor (220; 220A; 220B) including a second port wall (223; 223A; 223B) in which a second suction port (224; 224B) is formed; wherein the first port wall (213; 213A; 213B) and the second port wall (223; 223A; 223B) are arranged to face each other, wherein the air compression device (100; 100A; 100B), further comprising a suction pipe (300; 300B) which guides an air to the first suction port (214; 214B) and the second suction port (224; 224B), wherein the suction pipe (300; 300B) is arranged between the first port wall (213; 213A; 213B) and the second port wall (223; 223A; 223B), wherein the suction pipe includes a suction duct extending along the first port wall , a connecting pipe including a first end connected to the suction duct and a second end connected to the first suction port and a trim seal which seals an interspace between the suction duct and the first end .
A piston pump used to lift liquids to a higher level, that includes a cylinder connected to an outflow pipe through a check valve and that has a piston, characterized in that the piston is composed of a disc and a piston ring , with a circular flange , in the form of a stud pipe, on which a springy gasket is mounted, on which a thrust ring is located, with which a piston cylinder is combined, while the piston ring is equipped with supports with forks, in which levers are mounted pivotally and they are jointly connected to the thrust ring and through the joint they are connected to arms , which are pivotally combined with a ring , pivotally mounted on a threaded rod , with a first nut , which is pivotally combined with the piston disc , while the piston ring has slanting supports , combined with a second nut screwed on the threaded rod , a cross link has a third nut and it is mounted on slides combined with the thrust ring , and the piston cylinder has outflow holes in its lower part with dampers connected through strands to drum spiral springs fastened to the cylinder edges.
A computer-implemented method for protecting a folder from unauthorized file modification, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: receiving, from a remote device, a modify request for a target file in a folder, wherein the remote device sends the modify request in response to: detecting the modify request from a process on the remote device; determining whether the target file is in a protected folder; determining, in response to determining that the target file is in the protected folder, whether the process is an authorized process; and sending, in response to determining that the process is the authorized process, the modify request; determining whether the folder is the protected folder; determining, in response to determining the folder is the protected folder, whether the remote device is a trusted host; and allowing, in response to determining that the remote device is the trusted host, the modify request for the target file. receiving, from a remote device, a modify request for a target file in a folder, wherein the remote device sends the modify request in response to: detecting the modify request from a process on the remote device; determining whether the target file is in a protected folder; determining, in response to determining that the target file is in the protected folder, whether the process is an authorized process; and sending, in response to determining that the process is the authorized process, detecting the modify request from a process on the remote device; determining whether the target file is in a protected folder; determining, in response to determining that the target file is in the protected folder, whether the process is an authorized process; and sending, in response to determining that the process is the authorized process, the modify request; determining whether the folder is the protected folder; determining, in response to determining the folder is the protected folder, whether the remote device is a trusted host; and allowing, in response to determining that the remote device is the trusted host, the modify request for the target file.