mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a first user equipment, UE, operating in a wireless communication system, the method comprising; generating (S1401) a first ID according to a type of device to device, D2D, communication; generating (S1403) a first indicator; transmitting (S1405), to a second UE, a first medium access control protocol data unit, MAC PDU, including the first ID and the first indicator over D2D resources; receiving (S1409), from the second UE, a second MAC PDU including a second indicator and a second ID of the second UE; storing (S1411) the second ID; and performing (S1413) the D2D communication with the second UE according to the type of the D2D communication, wherein if the type of the D2D communication is one-to-one communication, the first ID is an ID of the first UE, the first indicator indicates that the first UE is trying to perform one-to-one communication between the first UE and the second UE, and the second indicator indicates that the second UE wants to join one-to-one communication with the first UE, and wherein if the type of the D2D communication is one-to-many communication, the first ID is an ID that identifies a specific UE group, the first indicator indicates that the first UE is trying to perform one-to-many communication with the second UE, and the second indicator indicates that the second UE wants to join the specific UE group to join the D2D communication with the first UE.
An electronic device for wireless communication, comprising: at least one processor configured to: determine a current carrier aggregation state of a first user equipment in response to a request for proximity-based service direct communication of the first user equipment; and determine a radio resource configuration of the first user equipment based on the carrier aggregation state of the first user equipment, wherein the radio resource configuration is used for the proximity-based service direct communication of the first user equipment; wherein whether to reconfigure current carrier aggregation to enable the proximity-based service direct communication is determined, by the at least one processor , based on the determined carrier aggregation state and equipment capability of the first user equipment, wherein the carrier aggregation state comprises the number of aggregated component carriers. determine a current carrier aggregation state of a first user equipment in response to a request for proximity-based service direct communication of the first user equipment; and determine a radio resource configuration of the first user equipment based on the carrier aggregation state of the first user equipment, wherein the radio resource configuration is used for the proximity-based service direct communication of the first user equipment; wherein whether to reconfigure current carrier aggregation to enable the proximity-based service direct communication is determined, by the at least one processor , based on the determined carrier aggregation state and equipment capability of the first user equipment, wherein the carrier aggregation state comprises the number of aggregated component carriers.
Air jet spray device for spraying a liquid-gas mixture , comprising a frame , an air jet spray cannon and an actuator which is arranged between the frame and the air jet spray cannon for rotating the air jet spray cannon relative to the frame in a rotation direction between a first and a second end position (A, B), wherein the first and second end positions are determined by respectively a first and a second position determining means, wherein each position determining means is configured to detect one of said first and second end position and to reverse the rotation direction on the basis of the detection, characterized in that the air jet spray device further comprises a graduated arc which is provided on the frame , wherein the first and second position determining means comprise a first and a second position limiting element and a switching relay compatible with the first and second position limiting element, wherein the switching relay is coupled to the air jet spray cannon, wherein the first and the second position limiting element are coupled to the graduated arc and wherein the rotation direction runs along the graduated arc .
A conveyor belt , comprising: a magnetic conveyor belt module comprising a module body extending in thickness from a first upper surface to a bottom surface, laterally from a first edge to a second edge, and longitudinally from a first end to a second end; a magnetic insert coupled to the module body , and a non-magnetic conveyor belt module connected to the magnetic conveyor belt module , characterized by the magnetic insert having a second upper surface that is above the first upper surface of the module body and by the non-magnetic conveyor belt module having a third upper surface that is non-magnetic and higher than the first upper surface and wherein the third upper surface is higher than the second upper surface . a magnetic conveyor belt module comprising a module body extending in thickness from a first upper surface to a bottom surface, laterally from a first edge to a second edge, and longitudinally from a first end to a second end; a magnetic insert coupled to the module body , and a module body extending in thickness from a first upper surface to a bottom surface, laterally from a first edge to a second edge, and longitudinally from a first end to a second end; a magnetic insert coupled to the module body , and a non-magnetic conveyor belt module connected to the magnetic conveyor belt module , characterized by the magnetic insert having a second upper surface that is above the first upper surface of the module body and by the non-magnetic conveyor belt module having a third upper surface that is non-magnetic and higher than the first upper surface and wherein the third upper surface is higher than the second upper surface .
Device for sample separation, particularly for separating blood, comprising a lower plate-shaped substrate with channel structures moulded into the substrate and a film arranged on the lower plate-shaped substrate , wherein the film covers the channel structures, a feed device for vertically receiving the sample , a separating device for separating sample constituents, wherein the separating device comprises a vertical opening , a filter , in particular a membrane , an inlet chamber for receiving separated sample liquid, particularly blood plasma, said inlet chamber being arranged on the separating device and open to fluids from the separating device , and a channel which conveys the separated sample liquid in the lateral direction from the inlet chamber , wherein the channel is formed by a recess in the base of the inlet chamber , so that the inflow region for the separated liquid is located in the channel in the inlet chamber , characterised in that the film forms a cover which partly covers the channel in fluidtight manner, wherein the cover is constructed as a tongue which is connected in one piece to the film and wherein the tongue projects into a fill opening in the film , so that the inflow region of the channel is located in the central region of the inlet chamber and is not covered but is open at the top, and wherein the lower filter surface forms an upper separating surface towards the inlet chamber, wherein the separating surface in the region of a channel opening abuts on the base of the inlet chamber and wherein the channel extends at least partly under the separating surface , so that after flowing through the separating surface sample liquid separated by the separating device is able to wet the channel directly and to flow into the channel .
A composition, comprising: a suspending medium; a bioactive glass comprising B 2 O 3 ; and an effective amount of an antimicrobial biguanide compound. a suspending medium; a bioactive glass comprising B 2 O 3 ; and an effective amount of an antimicrobial biguanide compound.
A seal assembly comprising: a seal arc segment defining radially inner and outer sides (R 1 , R 2 ), the radially outer side (R 2 ) including radially-extending sidewalls and a radially inner surface joining the radially-extending sidewalls, the radially-extending sidewalls and the radially inner surface defining a pocket ; and a manifold disposed at least partially in the pocket, the manifold subdividing the pocket such that there is a manifold chamber bounded by the manifold and the radially inner surface, the manifold including at least one inlet and a plurality of outlets , the seal assembly characterised in that ; the seal assembly further comprises a seal disposed between the radially-extending sidewalls and the manifold , and that the seal is contiguous with the radially inner surface . a seal arc segment defining radially inner and outer sides (R 1 , R 2 ), the radially outer side (R 2 ) including radially-extending sidewalls and a radially inner surface joining the radially-extending sidewalls, the radially-extending sidewalls and the radially inner surface defining a pocket ; and a manifold disposed at least partially in the pocket, the manifold subdividing the pocket such that there is a manifold chamber bounded by the manifold and the radially inner surface, the manifold including at least one inlet and a plurality of outlets , the seal assembly characterised in that ; the seal assembly further comprises a seal disposed between the radially-extending sidewalls and the manifold , and that the seal is contiguous with the radially inner surface .
A method for controlling at least one ejector in a vapour compression system , the vapour compression system comprising a compressor unit comprising one or more compressors, a heat rejecting heat exchanger , at least one ejector , a receiver , at least one expansion device and at least one evaporator arranged in a refrigerant path, wherein each ejector is arranged in the refrigerant path with a primary inlet of the ejector connected to an outlet of the heat rejecting heat exchanger , an outlet of the ejector connected to the receiver and a secondary inlet of the ejector connected to a part of a return pipe receiving refrigerant from outlets of the evaporator(s) , and wherein at least one of the ejector(s) is of a first, low pressure, kind, the method comprising the steps of: - obtaining a pressure value of refrigerant leaving the heat rejecting heat exchanger , and/or a temperature value of refrigerant leaving the heat rejecting heat exchanger , and - controlling at least the low pressure ejector(s) based on the obtained pressure value and/or temperature value, characterized in that the method further comprises the step of obtaining a refrigerant pressure at an outlet of the ejector(s) , and in that the step of controlling at least the low pressure ejector(s) is further based on a pressure difference and/or a pressure ratio between the refrigerant pressure at the primary inlet of the ejector(s) and the refrigerant pressure at the outlet of the ejector(s) . - obtaining a pressure value of refrigerant leaving the heat rejecting heat exchanger , and/or a temperature value of refrigerant leaving the heat rejecting heat exchanger , and - controlling at least the low pressure ejector(s) based on the obtained pressure value and/or temperature value,
An information transmission method, comprising: receiving , by a terminal, first information sent by a network device through downlink control information, DCI; wherein the method comprising: determining , by the terminal, time of a channel that can be occupied from a first moment by using the first information, wherein the first information corresponds to bit information and the bit information is in the DCI, wherein the first moment comprises a moment related to the terminal receiving the DCI, and wherein the bit information corresponding to the first information comprises channel occupancy time information associated with M cells, M is greater than or equal to 1. receiving , by a terminal, first information sent by a network device through downlink control information, DCI; wherein the method comprising: determining , by the terminal, time of a channel that can be occupied from a first moment by using the first information, wherein the first information corresponds to bit information and the bit information is in the DCI, wherein the first moment comprises a moment related to the terminal receiving the DCI, and wherein the bit information corresponding to the first information comprises channel occupancy time information associated with M cells, M is greater than or equal to 1. determining , by the terminal, time of a channel that can be occupied from a first moment by using the first information, wherein the first information corresponds to bit information and the bit information is in the DCI, wherein the first moment comprises a moment related to the terminal receiving the DCI, and wherein the bit information corresponding to the first information comprises channel occupancy time information associated with M cells, M is greater than or equal to 1.
A system of an engine (EG) and a starting device , wherein the starting device comprises a vibration damping device disposed in an oil chamber filled with oil and comprising: a support member that rotates together with a rotary element , to which torque from the engine (EG) is transferred, about a center of rotation (RC) of the rotary element ; a restoring force generation member that is coupled to the support member and that is swingable along with rotation of the support member ; and an inertial mass body coupled to the support member via the restoring force generation member and swung about the center of rotation (RC) in conjunction with the restoring force generation member along with rotation of the support member , characterised in that : an order (q eff ) of the vibration damping device is larger than a sum of an excitation order (q tag ) of the engine (EG) and an offset value (Δq) determined in consideration of an effect of oil in the oil chamber ; a reference order (q ref ), which is a convergent value of the order (q eff ) of the vibration damping device which operates in the oil chamber when an amplitude (λ) of vibration of input torque transferred to the rotary element becomes smaller, is higher than the excitation order (q tag ). an order (q eff ) of the vibration damping device is larger than a sum of an excitation order (q tag ) of the engine (EG) and an offset value (Δq) determined in consideration of an effect of oil in the oil chamber ; a reference order (q ref ), which is a convergent value of the order (q eff ) of the vibration damping device which operates in the oil chamber when an amplitude (λ) of vibration of input torque transferred to the rotary element becomes smaller, is higher than the excitation order (q tag ).
A safety cap assembly for a pressure cooker , comprising: a pressure release tube formed therein with an axially extending pressure release channel and formed with an outwardly extending flange portion at a lower end thereof, a cap securing nut which is in substantially a truncated cone shape with an outer diameter thereof gradually increasing from a top end to a bottom end thereof and is configured to be attached to a lower portion of said pressure release tube , and a safety cap unit comprised of a mesh casing and a supporting bridge and configured to be attached to the lower portion of said pressure release tube , characterized in a central portion of said supporting bridge being substantially outside of said mesh casing and held by said cap securing nut and said outwardly extending flange portion . a pressure release tube formed therein with an axially extending pressure release channel and formed with an outwardly extending flange portion at a lower end thereof, a cap securing nut which is in substantially a truncated cone shape with an outer diameter thereof gradually increasing from a top end to a bottom end thereof and is configured to be attached to a lower portion of said pressure release tube , and a safety cap unit comprised of a mesh casing and a supporting bridge and configured to be attached to the lower portion of said pressure release tube ,
A method for providing multimedia content in a system, the method comprising: generating a packet according to a moving picture experts group, MPEG, media transport, MMT, protocol, the packet including a packet header and a packet payload, wherein the packet payload comprises a signalling message related to a package of the multimedia content; and transmitting the generated packet to a receiving entity, wherein the signalling message comprises: a message type field comprising information on a type of signalling information comprised in the signaling message, a length field comprising information on a length of the signalling message, and a field comprising, in a case where the type of the signalling information indicates the signalling message including a plurality of tables related to accessing the package, an identifier of each of the plurality of tables, and version information of each of the plurality of tables, and a payload field comprising the plurality of tables, and wherein a first table of the plurality of tables comprises information on the remaining tables except the first table among of the plurality of tables, wherein the information on the remaining tables comprises an identifier of a second table among the remaining table, version information of the second table, and location information of the second table. generating a packet according to a moving picture experts group, MPEG, media transport, MMT, protocol, the packet including a packet header and a packet payload, wherein the packet payload comprises a signalling message related to a package of the multimedia content; and transmitting the generated packet to a receiving entity, wherein the signalling message comprises: a message type field comprising information on a type of signalling information comprised in the signaling message, a length field comprising information on a length of the signalling message, and a field comprising, in a case where the type of the signalling information indicates the signalling message including a plurality of tables related to accessing the package, an identifier of each of the plurality of tables, and version information of each of the plurality of tables, and a payload field comprising the plurality of tables, and a message type field comprising information on a type of signalling information comprised in the signaling message, a length field comprising information on a length of the signalling message, and a field comprising, in a case where the type of the signalling information indicates the signalling message including a plurality of tables related to accessing the package, an identifier of each of the plurality of tables, and version information of each of the plurality of tables, and a payload field comprising the plurality of tables, and wherein a first table of the plurality of tables comprises information on the remaining tables except the first table among of the plurality of tables, wherein the information on the remaining tables comprises an identifier of a second table among the remaining table, version information of the second table, and location information of the second table.
A method of detecting and differentiating bacterial spores from vegetative cells in a sample comprising the steps of: - preparing a sample to be tested for the presence of bacterial spores and vegetative cells, the sample being taken from a hard surface, a liquid or a paper product; - measuring an initial quantity of adenosine triphosphate (ATP), recorded as ATPoriginal - heating the sample to destroy any vegetative cells; - measuring the quantity of ATP after heating the sample, recorded as ATPheat - enriching the sample; - extracting adenosine monophosphate (AMP) and adenosine diphosphate (ADP) from the sample; - converting AMP and ADP to ATP with enzymes; and - measuring a final quantity of ATP, recorded as ATPconversion wherein the presence of the ATP in the ATPoriginal measurement indicates the presence of vegetative cells, a decrease in the ATP from the ATPoriginal measurement to the ATPheat measurement indicates that the vegetative cells were destroyed by heating, and an increase in the ATP concentration from ATPheat measurement to ATPconversion measurement indicates the presence of bacterial spores. - preparing a sample to be tested for the presence of bacterial spores and vegetative cells, the sample being taken from a hard surface, a liquid or a paper product; - measuring an initial quantity of adenosine triphosphate (ATP), recorded as ATPoriginal - heating the sample to destroy any vegetative cells; - measuring the quantity of ATP after heating the sample, recorded as ATPheat - enriching the sample; - extracting adenosine monophosphate (AMP) and adenosine diphosphate (ADP) from the sample; - converting AMP and ADP to ATP with enzymes; and - measuring a final quantity of ATP, recorded as ATPconversion the presence of the ATP in the ATPoriginal measurement indicates the presence of vegetative cells, a decrease in the ATP from the ATPoriginal measurement to the ATPheat measurement indicates that the vegetative cells were destroyed by heating, and an increase in the ATP concentration from ATPheat measurement to ATPconversion measurement indicates the presence of bacterial spores.
Method for instrumenting a construction plant tyre for measuring the temperature inside a rubber compound of said tyre, comprising the following steps: a. Identifying, on the outer surface of the tyre, at least one area on the basis of predefined selection criteria, a temperature measuring sensor being intended for insertion into said at least one area; b. Drilling a cavity in said at least one insertion area identified in the preceding step, with a depth Hc in the drilling direction that is defined by a straight line making an angle Alpha with a radial direction of the tyre at the drilling point; c. Activating said temperature measuring sensor , which is equipped with a microprocessor, radio transmission means, a temperature measuring probe, and power supply means; d. Inserting the sensor in the cavity drilled in the tyre by interacting with a device for evacuating air that is present in the cavity; e. Fixing the sensor to the bottom and/or on the walls of the cavity using a fixing device; f. Hermetically closing the cavity by filling means. a. Identifying, on the outer surface of the tyre, at least one area on the basis of predefined selection criteria, a temperature measuring sensor being intended for insertion into said at least one area; b. Drilling a cavity in said at least one insertion area identified in the preceding step, with a depth Hc in the drilling direction that is defined by a straight line making an angle Alpha with a radial direction of the tyre at the drilling point; c. Activating said temperature measuring sensor , which is equipped with a microprocessor, radio transmission means, a temperature measuring probe, and power supply means; d. Inserting the sensor in the cavity drilled in the tyre by interacting with a device for evacuating air that is present in the cavity; e. Fixing the sensor to the bottom and/or on the walls of the cavity using a fixing device; f. Hermetically closing the cavity by filling means.