mhurhangee/patent-ind-claim-en huggingface dataset:
A method for routing communications traffic between a machine to machine, M2M, device connected to a telecommunications network and having an International Mobile Subscriber Identity, IMSI, and a server selected from a plurality of servers, the method comprising the steps of: assigning an access point name, APN, from a plurality of APNs based on the IMSI of the M2M device; and routing, via the assigned APN, communications traffic between the M2M device and the server, wherein the server is determined based on one or more of: the IMSI, the APN and a characteristic of a communication traffic between the M2M device and the server, wherein the characteristic is the transport protocol of the communications traffic received from the M2M device . assigning an access point name, APN, from a plurality of APNs based on the IMSI of the M2M device; and routing, via the assigned APN, communications traffic between the M2M device and the server, wherein the server is determined based on one or more of: the IMSI, the APN and a characteristic of a communication traffic between the M2M device and the server, wherein the characteristic is the transport protocol of the communications traffic received from the M2M device .
A process for manufacturing 2,3-butanediol by hydrogenation of acetoin with hydrogen in the presence of a heterogeneous hydrogenation catalyst, in (i) the presence of a solvent being 2,3-butanediol, or (ii) in the absence of any solvent, and in the absence of any carboxylic acid, wherein the heterogeneous hydrogenation catalyst comprises Ni or wherein the heterogeneous hydrogenation catalyst is a heterogeneous supported noble metal catalyst, wherein the noble metal is selected from the group consisting of Ru, Pt, Rh, Pd, and their mixtures and wherein the support of the heterogeneous supported noble metal catalyst is selected from the group consisting of carbon, graphite, graphene, graphene oxide, alumina, silica and their mixtures and wherein the hydrogenation is carried out at a partial hydrogen pressure from 1 to 10 MPa and at temperatures in the range from room temperature to 200°C.
A downlink control information, DCI, sending method, wherein the method comprises: determining DCI (S201), wherein the DCI comprises indication information and m information blocks, the indication information is used to indicate b terminal devices, a first information block in the m information blocks corresponds to a first terminal device in the b terminal devices, the first information block is used to indicate energy-saving information of the first terminal device, a second information block in the m information blocks corresponds to a second terminal device in the b terminal devices, the second information block is used to indicate energy-saving information of the second terminal device, a length of the first information block is different from a length of the second information block, and m ≤ b; and sending (S202) the DCI. determining DCI (S201), wherein the DCI comprises indication information and m information blocks, the indication information is used to indicate b terminal devices, a first information block in the m information blocks corresponds to a first terminal device in the b terminal devices, the first information block is used to indicate energy-saving information of the first terminal device, a second information block in the m information blocks corresponds to a second terminal device in the b terminal devices, the second information block is used to indicate energy-saving information of the second terminal device, a length of the first information block is different from a length of the second information block, and m ≤ b; and sending (S202) the DCI.
A method, performed by a terminal, for detecting a state of a networking channel between a smart device and an Internet of Things, IoT, server, wherein the IoT server is a server to which a user can log in, using the terminal, for connecting to the smart device, the method comprising: selecting the smart device, by sending a control instruction from the terminal to the IoT server to realize control of any one smart device and recording the any one smart device as the selected smart device if the control instruction is not accomplished; selecting a control protocol employed by the selected smart device; accessing , using the control protocol, the IoT server via the networking channel employed by the selected smart device, such that the terminal simulates an interaction between the selected smart device and the IoT server; and collecting the state of the networking channel during accessing, and presenting the collected state on a screen of the terminal. selecting the smart device, by sending a control instruction from the terminal to the IoT server to realize control of any one smart device and recording the any one smart device as the selected smart device if the control instruction is not accomplished; selecting a control protocol employed by the selected smart device; accessing , using the control protocol, the IoT server via the networking channel employed by the selected smart device, such that the terminal simulates an interaction between the selected smart device and the IoT server; and collecting the state of the networking channel during accessing, and presenting the collected state on a screen of the terminal.
Control device for a heating and/or ventilation and/or air-conditioning installation of a motor vehicle comprising an interior (H), said installation comprising an air treatment housing having: - at least two air outlets intended to open into a zone (ZG, ZD) of the vehicle interior (H), including at least a first defrosting and/or ventilation air outlet and at least one second air outlet at foot level, and - at least one first and at least one second member for mixing the air flow in order to produce an air flow at an adjusted temperature bound for said first and/or second air outlet , characterized in that said device has: - a user interface configured to be arranged in the vehicle interior (H), comprising at least one first control member for setting the temperature of a first air flow (F1) bound for said first air outlet and at least one second control member for setting the temperature of a second air flow (F2) bound for said second air outlet , and - a control circuit configured to: receive, from each control member , an input signal with an individual temperature setpoint, and to output separate control signals for controlling said first and second mixing members , so as to independently adjust the temperature of the first and second air flows (F1, F2) bound for said first air outlet and said second air outlet , respectively. - at least two air outlets intended to open into a zone (ZG, ZD) of the vehicle interior (H), including at least a first defrosting and/or ventilation air outlet and at least one second air outlet at foot level, and - at least one first and at least one second member for mixing the air flow in order to produce an air flow at an adjusted temperature bound for said first and/or second air outlet , - a user interface configured to be arranged in the vehicle interior (H), comprising at least one first control member for setting the temperature of a first air flow (F1) bound for said first air outlet and at least one second control member for setting the temperature of a second air flow (F2) bound for said second air outlet , and - a control circuit configured to: receive, from each control member , an input signal with an individual temperature setpoint, and to output separate control signals for controlling said first and second mixing members , so as to independently adjust the temperature of the first and second air flows (F1, F2) bound for said first air outlet and said second air outlet , respectively. receive, from each control member , an input signal with an individual temperature setpoint, and to output separate control signals for controlling said first and second mixing members , so as to independently adjust the temperature of the first and second air flows (F1, F2) bound for said first air outlet and said second air outlet , respectively.
A system for master/slave management of redundant process controller modules in industrial process control and automation systems comprising: first and second redundant controller modules (202a-202b), each controller module comprising mode management circuitry (400a-400b) configured to identify whether the corresponding controller module operates in a master mode or a slave mode; wherein the mode management circuitry in each controller module is configured to couple to the mode management circuitry in the other controller module; wherein the mode management circuitries in the controller modules are configured to collectively operate so that one of the controller modules is assigned the master mode and the other of the controller modules is assigned the slave mode; and wherein at least one of the mode management circuitries in the controller modules is configured to assign the master mode to the corresponding controller module based on a takeover signal when the mode management circuitry in the corresponding controller module is ready for use, and wherein the mode management circuitry in each controller module comprises: a NOT gate (408a-408b) configured to output a state signal identifying whether the corresponding controller module operates in the master mode or the slave mode; and bus switches (404a-404b) coupled to input and output terminals (412a-412b, 414a-414b) of the NOT gate and configured to remain open until the mode management circuitry is ready for use. first and second redundant controller modules (202a-202b), each controller module comprising mode management circuitry (400a-400b) configured to identify whether the corresponding controller module operates in a master mode or a slave mode; wherein the mode management circuitry in each controller module is configured to couple to the mode management circuitry in the other controller module; wherein the mode management circuitries in the controller modules are configured to collectively operate so that one of the controller modules is assigned the master mode and the other of the controller modules is assigned the slave mode; and wherein at least one of the mode management circuitries in the controller modules is configured to assign the master mode to the corresponding controller module based on a takeover signal when the mode management circuitry in the corresponding controller module is ready for use, and wherein the mode management circuitry in each controller module comprises: a NOT gate (408a-408b) configured to output a state signal identifying whether the corresponding controller module operates in the master mode or the slave mode; and bus switches (404a-404b) coupled to input and output terminals (412a-412b, 414a-414b) of the NOT gate and configured to remain open until the mode management circuitry is ready for use. a NOT gate (408a-408b) configured to output a state signal identifying whether the corresponding controller module operates in the master mode or the slave mode; and bus switches (404a-404b) coupled to input and output terminals (412a-412b, 414a-414b) of the NOT gate and configured to remain open until the mode management circuitry is ready for use.
Ground working system consisting of at least one self-propelled ground working implement (1.1, 1.2), wherein the ground working implement (1.1, 1.2) has a drive and a control unit , and having a working area (A) bounded by a wire , wherein the ground working implement (1.1, 1.2) is designed to travel a route (W) determined by the control unit in the working area (A), and having a base station with a transmitting unit electrically connected to the wire and configured to transmit a wire signal on the wire , wherein the electromagnetic field of the wire signal induces a receive signal in a receiver coil of the ground working implement (1.1, 1.2) and the control unit is configured to process the induced receive signal in the control unit , characterised in that the base station has a receiver unit and the receiver unit of the base station is configured to electrically receive the wire signal transmitted on the wire and to transfer it to a signal processing device , wherein the signal processing device is designed to compare the received wire signal to a predefined set signal and to change the transmitted wire signal if the electrically received wire signal deviates from the predefined set signal , wherein the receiver unit of the base station , the signal processing device of the base station and the transmitting unit of the base station form a control circuit together with the wire , which is connected to the base station in the form of a closed wire loop .
A dishwasher comprising: a cabinet including a washing compartment provided at an inside of the cabinet ; a supply pipe configured to transfer water to the washing compartment ; and a nozzle assembly connected to the supply pipe and configured to spray the water from the supply pipe into the washing compartment , wherein the nozzle assembly comprises: an assembly body having an injection hole configured to spray the water into the washing compartment ; and a rotation holder coupled to the assembly body and rotatably disposed on the supply pipe , and wherein the supply pipe comprises: a holder configured to support the rotation holder , characterized in that the rotation holder includes a rotation holder body rotatably disposed outside the supply pipe and a mounting projection protruding from an outer circumference surface of the rotation holder body . a cabinet including a washing compartment provided at an inside of the cabinet ; a supply pipe configured to transfer water to the washing compartment ; and a nozzle assembly connected to the supply pipe and configured to spray the water from the supply pipe into the washing compartment , wherein the nozzle assembly comprises: an assembly body having an injection hole configured to spray the water into the washing compartment ; and a rotation holder coupled to the assembly body and rotatably disposed on the supply pipe , and wherein the supply pipe comprises: a holder configured to support the rotation holder , characterized in that the rotation holder includes a rotation holder body rotatably disposed outside the supply pipe and a mounting projection protruding from an outer circumference surface of the rotation holder body . an assembly body having an injection hole configured to spray the water into the washing compartment ; and a rotation holder coupled to the assembly body and rotatably disposed on the supply pipe , and wherein the supply pipe comprises: a holder configured to support the rotation holder , characterized in that the rotation holder includes a rotation holder body rotatably disposed outside the supply pipe and a mounting projection protruding from an outer circumference surface of the rotation holder body . a holder configured to support the rotation holder , characterized in that the rotation holder includes a rotation holder body rotatably disposed outside the supply pipe and a mounting projection protruding from an outer circumference surface of the rotation holder body .
A method performed by a wireless transmitter determining a transport block size, TBS, the method comprising: determining the TBS using a general function of a number of physical resource blocks, PRBs, to be granted, N PRB , a number of resource elements, REs, per PRB, N RE DL , PRB , a number of layers per transport block, υ , a number of bits per modulation, Q m , and a coding rate determined by a modulation coding scheme, MCS, R , characterised in that : the general function comprises a linear function of N PRB υ , Q m and R when the product of N PRB , υ, Q m and R is larger than or equal to a threshold, the general function increases faster than a linear function of N PRB when the product of N PRB , υ, Q m and R is less than the threshold while it is still a linear function of υ , Q m and R, and for a given set of υ , Q m and R, the TBS is a non-decreasing function of N PRB over the range of N PRB ; allocating a transport block of the determined TBS; and transmitting the transport block to a wireless receiver. the general function comprises a linear function of N PRB υ , Q m and R when the product of N PRB , υ, Q m and R is larger than or equal to a threshold, the general function increases faster than a linear function of N PRB when the product of N PRB , υ, Q m and R is less than the threshold while it is still a linear function of υ , Q m and R, and for a given set of υ , Q m and R, the TBS is a non-decreasing function of N PRB over the range of N PRB ; allocating a transport block of the determined TBS; and transmitting the transport block to a wireless receiver.
A system configured to determine a value of each of one or more game tokens that are put on a game table and constitute one or more stack, wherein the game token has a notation of value of the game token on a flat surface and has a first color part representing the value by a color thereof and a second color part not representing the value on a side surface, the system comprising: a camera configured to capture a game token put on the game table and generate an image; and one or more processor configured to, using a deep learning technology: analyze the image in which the one or more first color part and the one or more second color part appear; and determine the value of the one or more game tokens that constitute one or more stack and are captured in the image based on the color of the one or more first color part in the image. a camera configured to capture a game token put on the game table and generate an image; and one or more processor configured to, using a deep learning technology: analyze the image in which the one or more first color part and the one or more second color part appear; and determine the value of the one or more game tokens that constitute one or more stack and are captured in the image based on the color of the one or more first color part in the image.
Tyre comprising a tread band on which a plurality of grooves are formed so as to define: - a plurality of central blocks which are arranged in succession along the circumferential development of a central region of said tread band, - a plurality of shoulder blocks which are arranged in succession along the circumferential development of shoulder regions which are defined on said tread band at the side axially opposite with respect to said central region, - a plurality of intermediate blocks which are arranged in succession along the circumferential development of said central region between said central blocks and said shoulder blocks, wherein for each central block is identified an intermediate block adjacent thereto and for each intermediate block is identified a pair of shoulder blocks adjacent thereto, wherein each intermediate block extends in a longitudinal direction between a front side directed towards a predefined direction of advancement (Y) of said tyre and an opposite rear side , and wherein for each intermediate block are identified: - a first shoulder block of said pair of shoulder blocks, having a first, axially internal, longitudinal end which faces towards said rear side of said intermediate block and, - a second shoulder block of said pair of shoulder blocks, having a first, axially internal, longitudinal end which faces towards a lateral side of said intermediate block opposite a central block axially adjacent to said intermediate block, characterised in that to each central block there corresponds, in an axial direction (X) of said tyre, said intermediate block adjacent thereto and in that to each intermediate block there corresponds, in an axial direction (X) of said tyre, said pair of shoulder blocks adjacent thereto. - a plurality of central blocks which are arranged in succession along the circumferential development of a central region of said tread band, - a plurality of shoulder blocks which are arranged in succession along the circumferential development of shoulder regions which are defined on said tread band at the side axially opposite with respect to said central region, - a plurality of intermediate blocks which are arranged in succession along the circumferential development of said central region between said central blocks and said shoulder blocks, - a first shoulder block of said pair of shoulder blocks, having a first, axially internal, longitudinal end which faces towards said rear side of said intermediate block and, - a second shoulder block of said pair of shoulder blocks, having a first, axially internal, longitudinal end which faces towards a lateral side of said intermediate block opposite a central block axially adjacent to said intermediate block, characterised in that to each central block there corresponds, in an axial direction (X) of said tyre, said intermediate block adjacent thereto and in that to each intermediate block there corresponds, in an axial direction (X) of said tyre, said pair of shoulder blocks adjacent thereto.
A method of operating an ablation cell for laser ablation of a sample, wherein the ablation cell comprises: a flow channel having an inlet for feeding a carrier gas (G1) to the flow channel and having an outlet ; a lateral opening in a first wall portion of said flow channel ; a lateral window disposed in a second wall portion of said flow channel opposite said lateral opening ; and a sample chamber adjacent to said lateral opening , the sample chamber being configured to receive a sample in a manner to enable a laser beam to enter the sample chamber through said lateral window and said lateral opening and to impinge on a surface of said sample , the sample chamber having an inlet for feeding a sheath gas (G2) to the sample chamber, the method comprising, not necessarily in the given order: placing a sample in the sample chamber such that a surface of the sample faces the lateral opening ; feeding a carrier gas (G1) to the inlet of the flow channel ; feeding a sheath gas (G2) to the inlet of the sample chamber ; ablating material from said surface by shining a pulsed laser beam through the lateral window and the lateral opening and onto said surface ; scanning the laser beam over the surface ; and analyzing the resulting aerosol to obtain a chemical image of the surface wherein the sample is a biological sample. a flow channel having an inlet for feeding a carrier gas (G1) to the flow channel and having an outlet ; a lateral opening in a first wall portion of said flow channel ; a lateral window disposed in a second wall portion of said flow channel opposite said lateral opening ; and a sample chamber adjacent to said lateral opening , the sample chamber being configured to receive a sample in a manner to enable a laser beam to enter the sample chamber through said lateral window and said lateral opening and to impinge on a surface of said sample , the sample chamber having an inlet for feeding a sheath gas (G2) to the sample chamber, placing a sample in the sample chamber such that a surface of the sample faces the lateral opening ; feeding a carrier gas (G1) to the inlet of the flow channel ; feeding a sheath gas (G2) to the inlet of the sample chamber ; ablating material from said surface by shining a pulsed laser beam through the lateral window and the lateral opening and onto said surface ; scanning the laser beam over the surface ; and analyzing the resulting aerosol to obtain a chemical image of the surface wherein the sample is a biological sample.