mhurhangee/patent-ind-claim-en huggingface dataset:
A method for simultaneously transmitting in a plurality of frequency segments, comprising: determining , at a communication device, whether simultaneous transmissions in a first frequency segment and a second frequency segment are to be synchronized in time; in response to the communication device determining that simultaneous transmissions in the first frequency segment and the second frequency segment are to be synchronized in time , transmitting a first packet in the first frequency segment beginning at a first time, and transmitting a second packet in the second frequency segment beginning at the first time; and in response to the communication device determining that simultaneous transmissions in the first frequency segment and the second frequency segment are to be unsynchronized in time , transmitting a third packet in the first frequency segment beginning at a second time, and transmitting a fourth packet in the second frequency segment beginning at a third time that is different than the second time. determining , at a communication device, whether simultaneous transmissions in a first frequency segment and a second frequency segment are to be synchronized in time; in response to the communication device determining that simultaneous transmissions in the first frequency segment and the second frequency segment are to be synchronized in time , transmitting a first packet in the first frequency segment beginning at a first time, and transmitting a second packet in the second frequency segment beginning at the first time; and transmitting a first packet in the first frequency segment beginning at a first time, and transmitting a second packet in the second frequency segment beginning at the first time; and in response to the communication device determining that simultaneous transmissions in the first frequency segment and the second frequency segment are to be unsynchronized in time , transmitting a third packet in the first frequency segment beginning at a second time, and transmitting a fourth packet in the second frequency segment beginning at a third time that is different than the second time. transmitting a third packet in the first frequency segment beginning at a second time, and transmitting a fourth packet in the second frequency segment beginning at a third time that is different than the second time.
An aqueous adhesive for an inorganic material (X) comprising: - an adhesive improver (J) comprising a copolymer (A) containing an unsaturated (poly) carboxylic acid (anhydride) (a1) and a (meth) acrylic acid alkyl (2 to 30 alkyl carbon atoms) ester (a2) as a constituent monomer, - a saccharide (B) selected from sugar alcohols and dextrin, - a polycarboxylic acid (C) of 4 to 24 carbon atoms and - water. - an adhesive improver (J) comprising a copolymer (A) containing an unsaturated (poly) carboxylic acid (anhydride) (a1) and a (meth) acrylic acid alkyl (2 to 30 alkyl carbon atoms) ester (a2) as a constituent monomer, - a saccharide (B) selected from sugar alcohols and dextrin, - a polycarboxylic acid (C) of 4 to 24 carbon atoms and - water.
A method for detecting the flow rate of a centrifugal pump, with which the flow rate is determined by way of the rotation speed of the pump and a hydraulic variable of the pump and an electrical variable of the drive motor of the pump, characterised in that a variable Y which is dependent on the flow rate is determined by way of a mathematic linking of terms of equations describing physical relations of the pump and drive motor, of which one term contains the rotation speed of the pump and a hydraulic variable of the pump and another term contains an electrical variable of the drive motor of the pump and the rotational speed of the pump, wherein the dependent variable Y is determined by way of the following equation Y = − a ∗ H n + b ∗ P n 2 or by the equation Y = − a ∗ H n + b ∗ P n 2 − c ∗ n in which a and b are constants to be determined, H the delivery head, P the electrical power of the drive motor, n the rotational speed and c is a constant to be determined, wherein the flow rate is then determined by way of a functional relation between the flow rate and the dependent variable Y by way of the determined dependent variable Y being compared to a corresponding dependent variable y est but one which is determined by way of model computation, and this method is repeated by way of variation of an assumed flow rate Q est , until an error variable y - y est is small to the extent that the assumed flow rate Q est corresponds to the actual flow rate Q, wherein the dependent variable y est which is determined by the model computation is determined from the equation yest = k 2 ∗ Qest 2 n + k 1 ∗ Qest + k 0 ∗ n in which yest is the dependent variable, k2, k1 and k0 constants, Q est the assumed flow rate and n the rotation speed.
An operating method performed by a base station in a wireless communication system supporting a device to device, D2D, scheme, the operating method comprising: receiving, from a user equipment, UE, a discovery resource request message for requesting discovery resources for transmitting discovery messages, the discovery resource request message comprising information of a number of non-public safety, PS, discovery messages to be transmitted by the UE in a discovery period or information of a number of PS discovery messages to be transmitted by the UE in the discovery period; allocating at least one resource for the non-PS discovery messages or at least one resource for the PS discovery messages for the UE based on the discovery resource request message; and transmitting, to the UE, first information indicating the at least one resource for the non-PS discovery messages or second information indicating the at least one resource for the PS discovery messages, wherein the discovery resource request message further comprises information of frequency on which the UE transmits the non-PS discovery messages or information of frequency on which the UE transmits the PS discovery messages. receiving, from a user equipment, UE, a discovery resource request message for requesting discovery resources for transmitting discovery messages, the discovery resource request message comprising information of a number of non-public safety, PS, discovery messages to be transmitted by the UE in a discovery period or information of a number of PS discovery messages to be transmitted by the UE in the discovery period; allocating at least one resource for the non-PS discovery messages or at least one resource for the PS discovery messages for the UE based on the discovery resource request message; and transmitting, to the UE, first information indicating the at least one resource for the non-PS discovery messages or second information indicating the at least one resource for the PS discovery messages, wherein the discovery resource request message further comprises information of frequency on which the UE transmits the non-PS discovery messages or information of frequency on which the UE transmits the PS discovery messages.
A ventilation system for a building, comprising a return installation and a pulse installation, the return installation comprising a system of ducts and valves and a vacuum generator intended to suck air inside the building, the pulse installation comprising a system of ducts and valves and a booster generator intended to send outside air into the building, characterized in that , during cleaning of the pulse installation of the ventilation system, said valves of the return installation are arranged to cut off the communication between the suction ducts and the vacuum generator , said valves of the pulse installation are arranged to direct and concentrate a vacuum in a first system of ducts of the pulse installation where the cleaning works should be carried out, and the pulse installation and the return installation are arranged to be put into communication by a bypass system , so that the vacuum generator of the return installation could generate a vacuum in the system of ducts of the pulse installation. the return installation comprising a system of ducts and valves and a vacuum generator intended to suck air inside the building, the pulse installation comprising a system of ducts and valves and a booster generator intended to send outside air into the building, characterized in that , during cleaning of the pulse installation of the ventilation system, said valves of the return installation are arranged to cut off the communication between the suction ducts and the vacuum generator , said valves of the pulse installation are arranged to direct and concentrate a vacuum in a first system of ducts of the pulse installation where the cleaning works should be carried out, and the pulse installation and the return installation are arranged to be put into communication by a bypass system , so that the vacuum generator of the return installation could generate a vacuum in the system of ducts of the pulse installation.
A device for supporting at least one arm of a user, wherein the device has a. at least one arm support element , each of which has an arm shell for placing on an arm, b. at least one passive actuator , i. which is configured to apply a force to at least one of the arm support elements , and c. at least one counter bearing for the force to be applied, i. which comprises at least one force transmission element and a counter bearing element , wherein the device features at least one force application lever , which is connected to one of the arm support elements such that it is torque-proof and confines an angle, and with which the at least one passive actuator engages, characterized by the fact that the angle is adjustable. a. at least one arm support element , each of which has an arm shell for placing on an arm, b. at least one passive actuator , i. which is configured to apply a force to at least one of the arm support elements , and i. which is configured to apply a force to at least one of the arm support elements , and c. at least one counter bearing for the force to be applied, i. which comprises at least one force transmission element and a counter bearing element , i. which comprises at least one force transmission element and a counter bearing element , wherein the device features at least one force application lever , which is connected to one of the arm support elements such that it is torque-proof and confines an angle, and with which the at least one passive actuator engages, characterized by the fact that the angle is adjustable.
A self-powered toy comprising: a power generation unit comprising a first electrode located on a first support layer ; a first structure including a charge acquisition layer located on the first electrode ; a second structure including a second electrode located on a second support layer ; a charge donating layer positioned on the second electrode and facing with the charge acquisition layer ; and a gap between the charge acquisition layer of the first structure and the second electrode of the second structure , which at least partially face each other; and a display unit electrically connected to the power generation unit , wherein the gap is removed by an external force directly or indirectly applied to the first structure , the second structure , or both thereof and is formed again when the external force is removed, and the display unit is driven by power generated by the power generation unit according to the removal and formation of the gap , wherein the charge acquisition layer includes a poly-dimethyl-siloxane, PDMS, layer and a surface of the PDMS layer is formed of irregular protrusions to correspond to a shape of an etched surface of the charge acquisition layer such to harvest more power supply; and wherein the charge donating layer includes any one selected from a group consisting of papers, cottons, and a combination of the papers and cottons. a power generation unit comprising a first electrode located on a first support layer ; a first structure including a charge acquisition layer located on the first electrode ; a second structure including a second electrode located on a second support layer ; a charge donating layer positioned on the second electrode and facing with the charge acquisition layer ; and a gap between the charge acquisition layer of the first structure and the second electrode of the second structure , which at least partially face each other; and a display unit electrically connected to the power generation unit , wherein the gap is removed by an external force directly or indirectly applied to the first structure , the second structure , or both thereof and is formed again when the external force is removed, and the display unit is driven by power generated by the power generation unit according to the removal and formation of the gap , wherein the charge acquisition layer includes a poly-dimethyl-siloxane, PDMS, layer and a surface of the PDMS layer is formed of irregular protrusions to correspond to a shape of an etched surface of the charge acquisition layer such to harvest more power supply; and wherein the charge donating layer includes any one selected from a group consisting of papers, cottons, and a combination of the papers and cottons.
A device for enabling ascending and/or descending of fish to overcome a height difference between a bottom water (UW) and a head water (OW), the device comprising a sluice chamber , which extends between the bottom water (UW) and the head water (OW) and fluidically connecting them to each another, and which can be locked off with a lower sluice gate with respect to the bottom water (UW) and with an upper sluice gate with respect to the head water (OW), characterized in that the sluice chamber is provided in a closed state with respect to all directions perpendicular to the longitudinal direction of the chamber , and thereby being completely floodable with water, and the sluice chamber extends in the form of a three-dimensional spiral between the bottom water (UW) and the head water (OW).
A device (D) for obtaining content by means of at least two transport protocols having different requirements in terms of available network bandwidth (B), wherein : - said content is available in different versions (V1,V2,V3,V4) on at least one server (CS 1) ; - said different versions (V1,V2,V3,V4) of a content correspond to different transmission bit rates and are subdivided into chunks adapted to be transmitted via a communication network (N); and - said device (D) is arranged to: ▪ choose a transport protocol that must be used at a given time by said at least one server (CS1) to transmit at least one required next chunk of a version (V1, V2, V3, V4) of a content to said device, wherein said chosen transport protocol comprises either a first transport protocol when a current value of the available bandwidth (B) of said communication network (N) is strictly greater than a firstvalue, or a second transport protocol when said current value of the bandwidth (B) is less than or equal to said first value; ▪ send to said at least one server (CS 1) a request for transmitting at least one required next chunk of a version (V1,V2,V3,V4) of a content by means of said transport protocol. - said content is available in different versions (V1,V2,V3,V4) on at least one server (CS 1) ; - said different versions (V1,V2,V3,V4) of a content correspond to different transmission bit rates and are subdivided into chunks adapted to be transmitted via a communication network (N); and - said device (D) is arranged to: ▪ choose a transport protocol that must be used at a given time by said at least one server (CS1) to transmit at least one required next chunk of a version (V1, V2, V3, V4) of a content to said device, wherein said chosen transport protocol comprises either a first transport protocol when a current value of the available bandwidth (B) of said communication network (N) is strictly greater than a firstvalue, or a second transport protocol when said current value of the bandwidth (B) is less than or equal to said first value; ▪ send to said at least one server (CS 1) a request for transmitting at least one required next chunk of a version (V1,V2,V3,V4) of a content by means of said transport protocol. ▪ choose a transport protocol that must be used at a given time by said at least one server (CS1) to transmit at least one required next chunk of a version (V1, V2, V3, V4) of a content to said device, wherein said chosen transport protocol comprises either a first transport protocol when a current value of the available bandwidth (B) of said communication network (N) is strictly greater than a firstvalue, or a second transport protocol when said current value of the bandwidth (B) is less than or equal to said first value; ▪ send to said at least one server (CS 1) a request for transmitting at least one required next chunk of a version (V1,V2,V3,V4) of a content by means of said transport protocol.
A non-aqueous electrolyte comprising a lithium salt, an organic solvent and an additive, wherein the additive comprises a sulfonyl-containing compound, characterized in that the sulfonyl-containing compound is Compound or Compound and Compound , wherein a structural formula of Compound is; and a structural formula of Compound is:
A connector housing comprising a connector body and a CPA device , the connector body being configured to interconnect with a corresponding mating connector body, comprising: a pair of longitudinal struts extending from the connector body parallel to a mating axis each defining an enclosed lateral slot ; and a connector position assurance (CPA) device interlocked within the lateral slots and moveable from an initial position to a final position along the mating axis after the connector body is coupled to the corresponding mating connector body, said CPA device having a lateral cross bar extending into each of the lateral slots thereby retaining the cross bar in the lateral slots , characterized in that the CPA device and the connector body are integrally formed so that they are one single piece, in that each lateral slot has two closed ends , in that each lateral slot extends through the longitudinal strut , in that the lateral cross bar extends through each of the lateral slots and defines retaining features outboard of each of the pair of longitudinal struts , and in that the retaining features are configured to prevent removal of the cross bar from the lateral slots . a pair of longitudinal struts extending from the connector body parallel to a mating axis each defining an enclosed lateral slot ; and a connector position assurance (CPA) device interlocked within the lateral slots and moveable from an initial position to a final position along the mating axis after the connector body is coupled to the corresponding mating connector body, said CPA device having a lateral cross bar extending into each of the lateral slots thereby retaining the cross bar in the lateral slots , characterized in that the CPA device and the connector body are integrally formed so that they are one single piece, in that each lateral slot has two closed ends , in that each lateral slot extends through the longitudinal strut , in that the lateral cross bar extends through each of the lateral slots and defines retaining features outboard of each of the pair of longitudinal struts , and in that the retaining features are configured to prevent removal of the cross bar from the lateral slots .
An optical pulse compression reflectometer, comprising: a single wavelength continuous optical source , an optical splitter , a modulation frequency pulse generating module , an optical directional coupler , an optical fiber under test , an optical coupler , a balanced photodetecter , and a pulse compression processing module ;wherein an output port of said single wavelength continuous optical source is connected with an input port of said optical splitter , a first output port of the optical splitter is connected with an input port of said modulation frequency pulse generating module , an output port the modulation frequency pulse generating module is connected with a first port of the optical directional coupler ,a second port of the optical directional coupler is connected with said optical fiber under test , a third port of the optical directional coupler is connected with a first input port of the optical coupler , and a second output port of the optical splitter is directly connected with a second input port of the optical coupler ;and two branches of output of the optical coupler are received in said balanced photoelectric photodetecter , and an output port of the balanced photoelectric detector is connected with said pulse compression processing module ; wherein the optical directional coupler is configured to output on the second port the light input on the first port, and to output on the third port the light input on the second port; characterized in that the modulation frequency pulse generating module comprises a first polarization controller , a linear modulation frequency voltage controlled oscillator , a waveform generator , a single sideband modulator , a second polarization controller , a first erbium-doped fiber amplifier , a Mach-Zehnder electro-optic modulator , and a second erbium-doped fiber amplifier ; wherein a wave output port of said waveform generator is connected with an input port of said linear modulation frequency voltage controlled oscillator , an output port of the linear modulation frequency voltage controlled oscillator is connected with an electric signal input port of said single sideband modulator , the first output port of the optical splitter is connected with an input port of said first polarization controller , an output port of the first polarization controller is connected with an optical signal input port of the single sideband modulator, an output port of the single sideband modulator is connected with an input port of said second polarization controller , an output port of the second polarization controller is connected with an input port of said erbium-doped fiber amplifier , an output port of the erbium-doped fiber amplifier is connected with an optical signal input port of said Mach-Zehnder electro-optic modulator , a pulse output port of the waveform generator is connected with an electric signal input port of the Mach-Zehnder electro-optic modulator , and an output port of the Mach-Zehnder electro-optic modulator is connected with an input port of the optical directional coupler .
An aerosol-generating device comprising: a first atomiser assembly comprising a first mesh element , the first mesh element defining a plurality of first nozzles each having a minimum diameter of equal to or less than 2.5 micrometres; a second atomiser assembly comprising a second mesh element , the second mesh element defining a plurality of second nozzles each having a minimum diameter of between 3 micrometres and 10 micrometres; a first device connector for receiving a first liquid reservoir and arranged to supply a first liquid from the first liquid reservoir to the first atomiser assembly ; and a second device connector for receiving a second liquid reservoir and arranged to supply a second liquid from the second liquid reservoir to the second atomiser assembly . a first atomiser assembly comprising a first mesh element , the first mesh element defining a plurality of first nozzles each having a minimum diameter of equal to or less than 2.5 micrometres; a second atomiser assembly comprising a second mesh element , the second mesh element defining a plurality of second nozzles each having a minimum diameter of between 3 micrometres and 10 micrometres; a first device connector for receiving a first liquid reservoir and arranged to supply a first liquid from the first liquid reservoir to the first atomiser assembly ; and a second device connector for receiving a second liquid reservoir and arranged to supply a second liquid from the second liquid reservoir to the second atomiser assembly .