mhurhangee/patent-ind-claim-en huggingface dataset:
Method performed in a proxy node for transferring transmission control protocol, TCP, data packets in TCP flows from a plurality of server nodes to a client node , wherein the proxy node captures the TCP data packets of the TCP flows, buffers the captured TCP data packets and updates a TCP active flow list in a subscriber record representing the client node, wherein a TCP flow is in the TCP active flow list if there are unsent TCP data packets buffered for the TCP flow, the method comprising: estimating (S20) a current proxy scheduling capacity from a current maximum total data amount allowed concurrently in transmission in one or more of the TCP flows to the client node; until the current proxy scheduling capacity has been reached or there are no TCP flows in the TCP active flow list, scheduling (S22) a TCP flow in the TCP active flow list for transmission when a TCP data packet transmission triggering event is received (S21), the scheduling based on an order given by the TCP active flow list; transmitting (S23) one or more of the buffered TCP data packets from the scheduled TCP flow to the client node; updating (S24) the TCP active flow list; and repeating the step of scheduling (S22) a TCP flow for transmission. estimating (S20) a current proxy scheduling capacity from a current maximum total data amount allowed concurrently in transmission in one or more of the TCP flows to the client node; until the current proxy scheduling capacity has been reached or there are no TCP flows in the TCP active flow list, scheduling (S22) a TCP flow in the TCP active flow list for transmission when a TCP data packet transmission triggering event is received (S21), the scheduling based on an order given by the TCP active flow list; transmitting (S23) one or more of the buffered TCP data packets from the scheduled TCP flow to the client node; updating (S24) the TCP active flow list; and repeating the step of scheduling (S22) a TCP flow for transmission.
A method of wireless communication, comprising: transmitting (S31), by a network device, first configuration information to a terminal device, wherein the first configuration information is used by the terminal device to determine a basic parameter set used for transmitting a sidelink channel, characterized in that : the sidelink channel is a physical sidelink feedback channel, PSFCH, and the first configuration information is used for configuring a basic parameter set of a resource pool of the sidelink channel, wherein the basic parameter set of the resource pool of the sidelink channel and a basic parameter set used for transmitting a sidelink synchronization signal block, S-SSB, are the same, and the basic parameter set comprises at least one of a sub-carrier spacing or a cyclic prefix, CP, type. transmitting (S31), by a network device, first configuration information to a terminal device, wherein the first configuration information is used by the terminal device to determine a basic parameter set used for transmitting a sidelink channel, characterized in that : the sidelink channel is a physical sidelink feedback channel, PSFCH, and the first configuration information is used for configuring a basic parameter set of a resource pool of the sidelink channel, wherein the basic parameter set of the resource pool of the sidelink channel and a basic parameter set used for transmitting a sidelink synchronization signal block, S-SSB, are the same, and the basic parameter set comprises at least one of a sub-carrier spacing or a cyclic prefix, CP, type.
An electrical power switching system, comprising: an electrical power switching apparatus; and an EMI-resistant control device for providing a control signal to control operation of the electrical power switching apparatus for selectively applying a predetermined voltage or electrical power for operation of an electrical device, the EMI-resistant control device comprising a carbon nanotube optical switch mounted in an optical glass fiber connector housing , and an optical fiber mounted in the optical glass fiber connector housing to receive an optical signal ; the carbon nanotube optical switch including a plurality of light sensitive carbon nanotubes adapted to connect a voltage source to an output of the EMI-resistant device in response to the optical signal being received by the EMI-resistant control device, the voltage source providing the control signal to cause the electrical power switching apparatus to turn on and to apply the predetermined voltage or electrical power to the electrical device for operation of the device; in which the EMI-resistant control device comprises a glass section or tube mounted in the optical glass fiber connector housing between the optical fiber and the carbon nanotube switch to transfer the optical signal from the optical glass fiber to the carbon nanotube optical switch ; and further in which it comprises an interface joining the glass section or tube to the carbon nanotube switch . an electrical power switching apparatus; and an EMI-resistant control device for providing a control signal to control operation of the electrical power switching apparatus for selectively applying a predetermined voltage or electrical power for operation of an electrical device, the EMI-resistant control device comprising a carbon nanotube optical switch mounted in an optical glass fiber connector housing , and an optical fiber mounted in the optical glass fiber connector housing to receive an optical signal ; the carbon nanotube optical switch including a plurality of light sensitive carbon nanotubes adapted to connect a voltage source to an output of the EMI-resistant device in response to the optical signal being received by the EMI-resistant control device, the voltage source providing the control signal to cause the electrical power switching apparatus to turn on and to apply the predetermined voltage or electrical power to the electrical device for operation of the device; in which the EMI-resistant control device comprises a glass section or tube mounted in the optical glass fiber connector housing between the optical fiber and the carbon nanotube switch to transfer the optical signal from the optical glass fiber to the carbon nanotube optical switch ; and further in which it comprises an interface joining the glass section or tube to the carbon nanotube switch .
Microscope with an observation optic system that comprises at least one ocular optic system with an illumination optic system comprising at least one light source , a collector optic system and a deflection means and with a shared lens optic system for observation optic system and illumination optic system, characterized in that the illumination optic system comprises a scale that is projected onto the observed object by means of illumination with light emitted by the light source through the shared lens optic system such that the scale becomes an integral part of the image viewed through the observation optic system and, on the one hand, the scale is correspondingly enlarged by changing the magnification of the microscope and, on the other hand, it is ensured that the scale is perceived by a human observer, for the purpose of determining size, through the ocular optic system or the ocular optic systems in the same way as a microscope camera attached to the microscope via a beam splitter in that the scale is disposed in the plane of the illumination optic system in which a field diaphragm is shown in focus by the illumination optic system.
A 3D time series vector sediment trap comprising a base disposed with trap pipes , wherein the trap pipes comprise water flow pipes and sedimentation pipes , wherein the water flow pipes have a horizontal water inlet at the front end, a vertical downward water outlet at the back end and a filter screen inside it whose top tilts towards the water inlet so that the filter screen forms an acute angle, and the filter screen is internally tangent to the water flow pipe ; and the sedimentation pipes , vertically fixed underneath the water flow pipes , have an open top end and a closed bottom end, wherein the open end communicates with the water flow pipe and directly faces the filter screen so that materials larger than the screen pore diameter are intercepted by the filter screen in the water flow pipe and collected in the sedimentation pipe .
An air-conditioning system comprising: a temperature control unit configured to control an indoor temperature; a humidity control unit configured to control an indoor humidity; and a control unit configured to control the temperature control unit and the humidity control unit so that the indoor temperature approaches a target temperature and the indoor humidity approaches a target humidity, characterized in that the control unit is configured to perform an operation in a first mode, wherein the control unit performs, as the operation in the first mode, a first operation where the target humidity is stepwise increased once or multiple times while keeping the target temperature, and a second operation where the target temperature is increased, and the target humidity is decreased, in this order at least once each. a temperature control unit configured to control an indoor temperature; a humidity control unit configured to control an indoor humidity; and a control unit configured to control the temperature control unit and the humidity control unit so that the indoor temperature approaches a target temperature and the indoor humidity approaches a target humidity, characterized in that the control unit is configured to perform an operation in a first mode, wherein the control unit performs, as the operation in the first mode, a first operation where the target humidity is stepwise increased once or multiple times while keeping the target temperature, and a second operation where the target temperature is increased, and the target humidity is decreased, in this order at least once each.
A method of determining a flight path for an aerial vehicle, comprising: identifying during flight of the aerial vehicle and with aid of one or more processors, a change in a state of signal transmission occurring at a first location, wherein the change in a state of signal transmission includes a loss or weakening of signal transmitted between the aerial vehicle and a remote device; in response to the identifying, selecting for the aerial vehicle a first destination that is at a second location, including accessing information indicating that the second location is a location detected by one or more sensors onboard the aerial vehicle during a previous flight of the aerial vehicle, wherein a state of signal transmission between the aerial vehicle and the remote device at the second location during the previous flight was normal; determining a first flight path for the aerial vehicle to reach the first destination in safe mode, wherein determining a flight path to reach a destination in safe mode includes accessing information indicating locations detected by one or more sensors onboard the aerial vehicle during a previous flight to build the flight path; upon reaching the first destination by the aerial vehicle in safe mode, assessing in real time at the first destination a state of signal transmission between the aerial vehicle and the remote device; and determining a second flight path to a second destination based on said assessment, wherein the aerial vehicle no longer stays in the safe mode when the state of signal transmission at the first destination is normal. identifying during flight of the aerial vehicle and with aid of one or more processors, a change in a state of signal transmission occurring at a first location, wherein the change in a state of signal transmission includes a loss or weakening of signal transmitted between the aerial vehicle and a remote device; in response to the identifying, selecting for the aerial vehicle a first destination that is at a second location, including accessing information indicating that the second location is a location detected by one or more sensors onboard the aerial vehicle during a previous flight of the aerial vehicle, wherein a state of signal transmission between the aerial vehicle and the remote device at the second location during the previous flight was normal; determining a first flight path for the aerial vehicle to reach the first destination in safe mode, wherein determining a flight path to reach a destination in safe mode includes accessing information indicating locations detected by one or more sensors onboard the aerial vehicle during a previous flight to build the flight path; upon reaching the first destination by the aerial vehicle in safe mode, assessing in real time at the first destination a state of signal transmission between the aerial vehicle and the remote device; and determining a second flight path to a second destination based on said assessment, wherein the aerial vehicle no longer stays in the safe mode when the state of signal transmission at the first destination is normal.
An extremely small diameter endoscope comprising: an endoscope body having a distal end nozzle ; an imaging unit disposed in the endoscope body and adapted for capturing an image; an endoscope insertion part comprising a proximal end portion and a projection end portion, the proximal end portion connected to the imaging unit , the endoscope insertion part passing through the distal end nozzle , the projection end portion to be positioned in a root canal of a tooth or in a periodontal pocket ; and endoscope insertion part insertion means for inserting the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket , characterised in that the endoscope insertion part insertion means is slidably attached to the endoscope body and includes the imaging unit and a lever , and the endoscope insertion part insertion means is configured to allow a user to, by user slide operations of the lever forward and backward, slide the endoscope insertion part insertion means forward and backward in the same directions, to move the endoscope insertion part forward and backward in the endoscope body and in the distal end nozzle in conjunction with the imaging unit and thereby to insert the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket with an end portion of the distal end nozzle kept abutted against a surrounding portion of the observation portion. an endoscope body having a distal end nozzle ; an imaging unit disposed in the endoscope body and adapted for capturing an image; an endoscope insertion part comprising a proximal end portion and a projection end portion, the proximal end portion connected to the imaging unit , the endoscope insertion part passing through the distal end nozzle , the projection end portion to be positioned in a root canal of a tooth or in a periodontal pocket ; and endoscope insertion part insertion means for inserting the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket , characterised in that the endoscope insertion part insertion means is slidably attached to the endoscope body and includes the imaging unit and a lever , and the endoscope insertion part insertion means is configured to allow a user to, by user slide operations of the lever forward and backward, slide the endoscope insertion part insertion means forward and backward in the same directions, to move the endoscope insertion part forward and backward in the endoscope body and in the distal end nozzle in conjunction with the imaging unit and thereby to insert the endoscope insertion part into an observation portion in the root canal of the tooth or in the periodontal pocket with an end portion of the distal end nozzle kept abutted against a surrounding portion of the observation portion.
A pharmaceutical compound, composition or combination comprising (a) a DPP-4 inhibitor, which is linagliptin, or a pharmaceutically acceptable salt thereof, and, optionally, (b) a second antidiabetic agent selected from the group G3 consisting of biguanides, thiazolidindiones, sulfonylureas, glinides, inhibitors of alpha-glucosidase, GLP-1 or GLP-1 analogues, and insulin or insulin analogues, and, optionally, (c) a third antidiabetic agent being different from (b) selected from the group G3 consisting of biguanides, thiazolidindiones, sulfonylureas, glinides, inhibitors of alpha-glucosidase, GLP-1 or GLP-1 analogues, and insulin or insulin analogues, or a pharmaceutically acceptable salt thereof; for use in treating type 2 diabetes mellitus, said use comprising testing that the patient has at least one T allele in the single nucleotide polymorphism (SNP) rs7903146 in the gene coding for TCF7L2, and administering the pharmaceutical compound, composition or combination to the patient. (a) a DPP-4 inhibitor, which is linagliptin, or a pharmaceutically acceptable salt thereof, and, optionally, (b) a second antidiabetic agent selected from the group G3 consisting of biguanides, thiazolidindiones, sulfonylureas, glinides, inhibitors of alpha-glucosidase, GLP-1 or GLP-1 analogues, and insulin or insulin analogues, and, optionally, (c) a third antidiabetic agent being different from (b) selected from the group G3 consisting of biguanides, thiazolidindiones, sulfonylureas, glinides, inhibitors of alpha-glucosidase, GLP-1 or GLP-1 analogues, and insulin or insulin analogues, or a pharmaceutically acceptable salt thereof; for use in treating type 2 diabetes mellitus, said use comprising testing that the patient has at least one T allele in the single nucleotide polymorphism (SNP) rs7903146 in the gene coding for TCF7L2, and administering the pharmaceutical compound, composition or combination to the patient.
Device for producing and filling containers, in which at least one tube of plasticised plastic material, which exits from an extrusion head , can be extruded into an open mould, wherein, by using a filling device , at least the filling material can be introduced into the respective containers by means of filling mandrels which, at least during operation, reach through the extrusion head along at least one row of apertures , wherein the extrusion head has a cuboid shell and wherein the overall height (H) of the extrusion head , viewed parallel to the orientation of the respective filling mandrel , is less than the length (L) of the extrusion head , viewed along the respective row of apertures , characterised in that the cuboid shell consists of at least one lower and one upper shell portion , at least one shell portion of which has a channel guide for the plasticised plastic material, said channel guide containing an annular space in the centre of which a receiving web is arranged, which has individual longitudinal receptacles in the form of apertures for the respective filling mandrels to reach through.
A toilet frame comprising a left side frame ; a right side frame ; and a crossbar that connects the left and ride side frames at the front of the toilet frame : wherein each of the left and right side frames is movable between a folded position in which it extends alongside the crossbar and an unfolded position in which it extends transversely of the crossbar ; and the left and right side frames are not connected by a crossbar at the back of the toilet frame , and characterized in that : each of the side frames has a respective front leg of which a lower part is fixed with respect to the crossbar and extends outwardly from the side frame , to the side of the toilet frame , to enlarge the width of the toilet frame at the front of the toilet frame ; each of the front legs has an upper part that pivots with respect to the lower part of the leg , along with the rest of the side frame , when the side frame moves between the folded and unfolded positions; and each of the side frames is provided with a respective armrest , the height of which is adjustable relative to the side frame . each of the side frames has a respective front leg of which a lower part is fixed with respect to the crossbar and extends outwardly from the side frame , to the side of the toilet frame , to enlarge the width of the toilet frame at the front of the toilet frame ; each of the front legs has an upper part that pivots with respect to the lower part of the leg , along with the rest of the side frame , when the side frame moves between the folded and unfolded positions; and each of the side frames is provided with a respective armrest , the height of which is adjustable relative to the side frame .
A method of applying an adhesive particulate to a nonmetallic substrate, the method comprising: applying an adhesive particulate to a portion of the substrate; selectively applying laser energy from a laser source having multiple independently controllable emitters of laser energy selectively activated, the selective application of laser energy is applied to the adhesive particulate and the substrate to fuse the adhesive particulate and the substrate selectively, forming a fused adhesive particulate portion; and after selectively applying the laser energy, removing an unfused portion of the applied adhesive particulate from the substrate.
A substitution box, SBox, circuit that performs an SBox computational step when comprised in cryptographic circuitry, the SBox circuit comprising: a first circuit part comprising digital circuitry that generates a 4-bit first output signal (Y) from an 8-bit input signal (U); a second circuit part , configured to operate in parallel with the first circuit part and to generate a 32-bit second output signal (L) from the 8-bit input signal (U), wherein the 32-bit second output signal (L) consists of four 8-bit sub-results; and a third circuit part configured to produce four preliminary 8-bit results (K) by scalar multiplying each of the four 8-bit sub-results by a respective one bit of the 4-bit first output signal (Y), and to produce an 8-bit output signal (R) by summing the four preliminary 8-bit results (K), wherein: the first circuit part is configured to generate the 4-bit first output signal (Y) from the input signal (U) by performing a calculation that comprises a first linear matrix operation , a Galois Field (GF) multiplication , and a GF inversion ; and the second circuit part is configured to generate the second output signal (L) from the input signal (U) by performing a calculation that comprises a second linear matrix operation. a first circuit part comprising digital circuitry that generates a 4-bit first output signal (Y) from an 8-bit input signal (U); a second circuit part , configured to operate in parallel with the first circuit part and to generate a 32-bit second output signal (L) from the 8-bit input signal (U), wherein the 32-bit second output signal (L) consists of four 8-bit sub-results; and a third circuit part configured to produce four preliminary 8-bit results (K) by scalar multiplying each of the four 8-bit sub-results by a respective one bit of the 4-bit first output signal (Y), and to produce an 8-bit output signal (R) by summing the four preliminary 8-bit results (K), wherein: the first circuit part is configured to generate the 4-bit first output signal (Y) from the input signal (U) by performing a calculation that comprises a first linear matrix operation , a Galois Field (GF) multiplication , and a GF inversion ; and the second circuit part is configured to generate the second output signal (L) from the input signal (U) by performing a calculation that comprises a second linear matrix operation. the first circuit part is configured to generate the 4-bit first output signal (Y) from the input signal (U) by performing a calculation that comprises a first linear matrix operation , a Galois Field (GF) multiplication , and a GF inversion ; and the second circuit part is configured to generate the second output signal (L) from the input signal (U) by performing a calculation that comprises a second linear matrix operation.