mhurhangee/patent-ind-claim-en huggingface dataset:
A subframe configuration method, comprising: determining (S202) a configuration of second type subframes according to a configuration of first type subframes and a bitmap sequence of subframe configuration of a resource pool, wherein the second type subframes are reserved subframes, and mapping of the bitmap sequence is not performed on the reserved subframes; and mapping (S204) the bitmap sequence of the subframe configuration of the resource pool according to the configuration of the first type subframes and the configuration of the second type subframes; characterized in that the determining (S202) the configuration of the second type subframes according to the configuration of the first type subframes and the bitmap sequence of the subframe configuration of the resource pool comprises: determining a quantity Nr of the second type subframes according to a quantity No of the first type subframes and a length L of the bitmap sequence; wherein Nr is equal to a modulo calculation result of a quantity Ns of basic subframes by the length L of the bitmap sequence, wherein the basic subframes are remaining subframes obtained by excluding the first type subframes from all system subframes within a range of system subframe sequence numbers, No and Nr are non-negative integers, and L is a positive integer. determining (S202) a configuration of second type subframes according to a configuration of first type subframes and a bitmap sequence of subframe configuration of a resource pool, wherein the second type subframes are reserved subframes, and mapping of the bitmap sequence is not performed on the reserved subframes; and mapping (S204) the bitmap sequence of the subframe configuration of the resource pool according to the configuration of the first type subframes and the configuration of the second type subframes; characterized in that the determining (S202) the configuration of the second type subframes according to the configuration of the first type subframes and the bitmap sequence of the subframe configuration of the resource pool comprises: determining a quantity Nr of the second type subframes according to a quantity No of the first type subframes and a length L of the bitmap sequence; wherein Nr is equal to a modulo calculation result of a quantity Ns of basic subframes by the length L of the bitmap sequence, wherein the basic subframes are remaining subframes obtained by excluding the first type subframes from all system subframes within a range of system subframe sequence numbers, No and Nr are non-negative integers, and L is a positive integer. determining a quantity Nr of the second type subframes according to a quantity No of the first type subframes and a length L of the bitmap sequence; wherein Nr is equal to a modulo calculation result of a quantity Ns of basic subframes by the length L of the bitmap sequence, wherein the basic subframes are remaining subframes obtained by excluding the first type subframes from all system subframes within a range of system subframe sequence numbers, No and Nr are non-negative integers, and L is a positive integer.
System for the validation and training of surgical interventions in human and veterinary medicine , which has a training model anatomically modelled on the human or animal body, comprising - an anatomical replica of a body part of the human or animal body, which has a recess, - an anatomical replica of an exchangeable training region , which is designed to be insertable into the recess of the anatomical replica of the body part , and which: - has a front side, which is accessible from the outside, and - has a rear side, which is at least partially positively connected to the recess of the anatomical replica of the body part , wherein the rear side corresponds to the surgical field for a user of the training model in which he practices surgical interventions and is not accessible to the user from the outside, and - an optoelectronic detection means , characterized in that the optoelectronic detection means is arranged in the recess of the anatomical replica of the body part in such a way that it is designed to detect the surgical interventions and to monitor the positioning of surgical instruments and/or implants at the rear of the exchangeable training region . - an anatomical replica of a body part of the human or animal body, which has a recess, - an anatomical replica of an exchangeable training region , which is designed to be insertable into the recess of the anatomical replica of the body part , and which: - has a front side, which is accessible from the outside, and - has a rear side, which is at least partially positively connected to the recess of the anatomical replica of the body part , wherein the rear side corresponds to the surgical field for a user of the training model in which he practices surgical interventions and is not accessible to the user from the outside, and - has a front side, which is accessible from the outside, and - has a rear side, which is at least partially positively connected to the recess of the anatomical replica of the body part , wherein the rear side corresponds to the surgical field for a user of the training model in which he practices surgical interventions and is not accessible to the user from the outside, and - an optoelectronic detection means ,
A building management system , BMS, the BMS comprising: a computer-based control system configured to manage: (a) two or more of a plurality of local environmental conditions comprising temperature, carbon dioxide levels and humidity within a building; and (b) one or both of heating costs and cooling costs for the building; wherein the BMS includes or is communicatively coupled with at least one multipurpose controller configured to adjust transmissivity of one or more windows in the building, characterized in that the at least one multipurpose controller is configured to determine a condition of one of the one or more windows by comparing a voltage and current profile to a historic voltage and current profile. a computer-based control system configured to manage: (a) two or more of a plurality of local environmental conditions comprising temperature, carbon dioxide levels and humidity within a building; and (b) one or both of heating costs and cooling costs for the building; (a) two or more of a plurality of local environmental conditions comprising temperature, carbon dioxide levels and humidity within a building; and (b) one or both of heating costs and cooling costs for the building; wherein the BMS includes or is communicatively coupled with at least one multipurpose controller configured to adjust transmissivity of one or more windows in the building, characterized in that the at least one multipurpose controller is configured to determine a condition of one of the one or more windows by comparing a voltage and current profile to a historic voltage and current profile.
Scissors comprised of a pair of shanks with one ends forming an upper shear blade and a lower shear blade and with the other ends of the pair of shanks forming handles , the handles being opened and closed centered about a pivot where the shanks intersect and causing the upper shear blade and the lower shear blade to open and close, and i) the tip side of the upper shear blade and the lower shear blade being curved upward in the vertical direction to the sliding surface of the shear blades; or ii) a tip side of the lower shear blade being curved upward in the vertical direction to the sliding surface of the shear blades and a tip of the upper shear blade being rounded or made pointed for piercing characterised in that at least one of the upper shear blade and the lower shear blade are formed by an alloy having an elastic deformation ability of 0.2% or more, wherein the cutting edge of a shear blade slides against a curved surface of an opposite cutting edge to deform the shape of the blade, and therefore the blades are able to move to the point while creating a single point of a cut part. i) the tip side of the upper shear blade and the lower shear blade being curved upward in the vertical direction to the sliding surface of the shear blades; or ii) a tip side of the lower shear blade being curved upward in the vertical direction to the sliding surface of the shear blades and a tip of the upper shear blade being rounded or made pointed for piercing characterised in that at least one of the upper shear blade and the lower shear blade are formed by an alloy having an elastic deformation ability of 0.2% or more, wherein the cutting edge of a shear blade slides against a curved surface of an opposite cutting edge to deform the shape of the blade, and therefore the blades are able to move to the point while creating a single point of a cut part.
A method for performing a seismic survey using a central control and a seismic source , the seismic source having a vibrator that acoustically couples to the ground using a moveable pad , the method characterized by : sending a first message from the seismic source to the central control indicating a time at which the pad is being lowered; estimating with the central control a time at which the pad will be acoustically coupled to the ground based on the first message; and sending a message from the central control to the seismic source to begin a sweep, the sweep beginning no sooner than the estimated time. sending a first message from the seismic source to the central control indicating a time at which the pad is being lowered; estimating with the central control a time at which the pad will be acoustically coupled to the ground based on the first message; and sending a message from the central control to the seismic source to begin a sweep, the sweep beginning no sooner than the estimated time.
Process for preparing 3-hydroxy-3-methylbutyric acid (HMB) or a salt thereof, the process comprising (a) reacting isobutylene oxide with cyanide in orderto obtain 3-hydroxy-3-methylbutyronitrile, and (b) hydrolyzing the 3-hydroxy-3-methylbutyronitrile obtained in step (a) in order to obtain HMB, wherein hydrolysis step (b) is performed using either at least one nitrilase enzyme or, alternatively, using a combination of enzymes, said combination comprising at least one nitrile hydratase and at least one amidase. (a) reacting isobutylene oxide with cyanide in orderto obtain 3-hydroxy-3-methylbutyronitrile, and (b) hydrolyzing the 3-hydroxy-3-methylbutyronitrile obtained in step (a) in order to obtain HMB,
An electrosurgical generator designed to output a high-frequency alternating voltage to an electrosurgical instrument , comprising a control unit and an inverter for high voltage, the inverter being configured to generate a high-frequency alternating voltage which is fed via an output connection to an output socket for connection of the electrosurgical instrument , wherein a galvanic separator is provided isolating the output socket from the control unit, and wherein a detection unit is provided being configured to detect when the electrosurgical instrument is plugged in the output socket, wherein the detection unit is a capacitive detector configured for detecting a capacitance of a plugged-in cable of the electrosurgical instrument .
Vehicle having an interior and a module arranged in the interior , wherein the module comprises: - a main carrier , which is fastened in the interior at a first location , - a seat-substructure cladding , which is fastened in the interior at a second location , and - a seat carrier which is fastened on the main carrier , wherein the seat-substructure cladding is fastened independently of the fastening of the main carrier , and the main carrier is fastened exclusively on a load-bearing, main framework of the vehicle , the main framework of the vehicle forming the first location , characterized in that the seat-substructure cladding is fastened exclusively on a floor of the vehicle , the floor forming the second location , wherein the floor has been uncoupled from the main framework of the vehicle and there is no direct force-fitting connection either between the main carrier and the seat-substructure cladding or between the seat carrier and the seat-substructure cladding , wherein there is no direct force-fitting connection between the load-bearing, main framework of the vehicle , on which the main carrier is fastened, and the floor of the vehicle , on which the seat-substructure cladding is fastened, and the floor of the vehicle has been mechanically uncoupled from the load-bearing, main framework of the vehicle using decoupling elements . - a main carrier , which is fastened in the interior at a first location , - a seat-substructure cladding , which is fastened in the interior at a second location , and - a seat carrier which is fastened on the main carrier ,
A composition comprising from 30% to 75% by weight of an anionic surfactant, from 3% to 18% of a primary solvent selected from the group consisting of 2,3-butanediol, 1,2-butanediol, 1,3-butanediol, and mixtures thereof, from 0.1% to 18% of a secondary solvent selected from the group consisting of a monoalcohol of formula (I) wherein each of R 3 , R 4 , and R 5 is independently selected from H or a substituted or unsubstituted, linear or branched C 1 -C 6 alkyl group, glycerine, propoxylated glycerine, ethoxylated glycerine, 1,2-propylene glycol, diethylene glycol, dipropylene glycol, and mixtures thereof, and water.
A system for drawing blood from the heart of a patient, the system comprising: a blood pump including an inlet and an outlet; an outflow cannula adapted to fluidly communicate the outlet of the blood pump to the circulatory system of the patient; and a flexible cannula assembly adapted to extend through a heart wall having internal and external surfaces, the flexible cannula assembly characterised by further comprising: a cannula body including a proximal end, a distal end including a first locking element , an inner wall defining a lumen, and an outer wall, the proximal end being coupled to the inlet of the blood pump; a tip coupled with the distal end of the cannula body; a first anchor including a first plurality of arms, the first anchor being coupled to the tip and adapted to engage the internal surface of the heart wall and operable to resist movement of the cannula assembly in at least one direction along a lengthwise direction of the cannula body; and a second anchor including a second plurality of arms and a second locking element , the second anchor positioned on the outer wall of the cannula body and adapted to slidably engage the first locking element of the distal end of the cannula body to couple the second anchor to the external surface of the heart wall.
A tread rubber composition, comprising at least one rubber component including at least one styrene-butadiene copolymer, the tread rubber composition comprising, per 100 parts by mass of the rubber component, 1 to 100 parts by mass of at least one carbon black and 0 to 150 parts by mass of at least one silica, the tread rubber composition satisfying the following relationships and : 1.05 ≤ H 1 b / H 1 a ≤ 1.75 0.20 ≤ H 2 b / H 2 a ≤ 0.75 wherein H1a and H1b represent peak areas of an extracted component obtained by acetone extraction of the tread rubber composition and an ozonolysis component obtained by ozonolysis of the extracted component, respectively, measured in a molecular weight range of at least 50 but less than 2500; and H2a and H2b represent peak areas of the extracted component and the ozonolysis component, respectively, measured in a molecular weight range of at least 2500 but not more than 30000, wherein the tread rubber composition further comprises a softener and/or a resin, and per 100 parts by mass of the rubber component, the amount of oils is 15 parts by mass or less, and the combined amount of the softener and the resin is 40 parts by mass or less, wherein the term "softener" refers to a component that is liquid at 25°C and has a softening effect. the tread rubber composition comprising, per 100 parts by mass of the rubber component, 1 to 100 parts by mass of at least one carbon black and 0 to 150 parts by mass of at least one silica, the tread rubber composition satisfying the following relationships and : 1.05 ≤ H 1 b / H 1 a ≤ 1.75 0.20 ≤ H 2 b / H 2 a ≤ 0.75 wherein H1a and H1b represent peak areas of an extracted component obtained by acetone extraction of the tread rubber composition and an ozonolysis component obtained by ozonolysis of the extracted component, respectively, measured in a molecular weight range of at least 50 but less than 2500; and H2a and H2b represent peak areas of the extracted component and the ozonolysis component, respectively, measured in a molecular weight range of at least 2500 but not more than 30000, wherein the tread rubber composition further comprises a softener and/or a resin, and per 100 parts by mass of the rubber component, the amount of oils is 15 parts by mass or less, and the combined amount of the softener and the resin is 40 parts by mass or less, wherein the term "softener" refers to a component that is liquid at 25°C and has a softening effect.
A system , comprising: signal acquisition circuitry , which is configured to receive from an intra-cardiac probe multiple intra-cardiac signals acquired by multiple electrodes of the probe , and to further receive a common ground signal for the multiple intra-cardiac signals, and to digitize the intra-cardiac signals relative to the common ground signal so as to produce multiple digital signals; an oscillator circuit , which is configured to modulate the intra-cardiac signals by generating an Alternating Current, AC, signal and applying the AC signal to the common ground signal provided to the signal acquisition circuitry ; and a processing unit , configured to: detect the AC signal in the multiple, modulated digital signals, and assess, based on the detected AC signal, respective qualities of physical contact between the electrodes and cardiac tissue. signal acquisition circuitry , which is configured to receive from an intra-cardiac probe multiple intra-cardiac signals acquired by multiple electrodes of the probe , and to further receive a common ground signal for the multiple intra-cardiac signals, and to digitize the intra-cardiac signals relative to the common ground signal so as to produce multiple digital signals; an oscillator circuit , which is configured to modulate the intra-cardiac signals by generating an Alternating Current, AC, signal and applying the AC signal to the common ground signal provided to the signal acquisition circuitry ; and a processing unit , configured to: detect the AC signal in the multiple, modulated digital signals, and assess, based on the detected AC signal, respective qualities of physical contact between the electrodes and cardiac tissue. detect the AC signal in the multiple, modulated digital signals, and assess, based on the detected AC signal, respective qualities of physical contact between the electrodes and cardiac tissue.
A terminal device configured to perform vehicle-to-X, V2X, communication and cellular communication, the terminal device comprising: circuitry configured to receive a discovery signal from at least one of a base station or road side unit , RSU, the discovery signal including information indicating whether cooperative V2X communication is supported; determine whether the a least one of the base station or RSU support cooperative V2X communication; and perform cooperative V2X communication with a vehicle-mounted electronic device with support from the at least one of the base station or RSU when it is determined that the at least one of the base station or RSU support cooperative V2X communication by either (i) transmitting a message directly to the vehicle-mounted electronic device and transmitting the message to the at least one of the base station or RSU or (ii) transmitting a message intended for the vehicle-mounted electronic device to the at least one of the base station or RSU for forwarding the message to the vehicle-mounted electronic device. receive a discovery signal from at least one of a base station or road side unit , RSU, the discovery signal including information indicating whether cooperative V2X communication is supported; determine whether the a least one of the base station or RSU support cooperative V2X communication; and perform cooperative V2X communication with a vehicle-mounted electronic device with support from the at least one of the base station or RSU when it is determined that the at least one of the base station or RSU support cooperative V2X communication by either (i) transmitting a message directly to the vehicle-mounted electronic device and transmitting the message to the at least one of the base station or RSU or (ii) transmitting a message intended for the vehicle-mounted electronic device to the at least one of the base station or RSU for forwarding the message to the vehicle-mounted electronic device. (i) transmitting a message directly to the vehicle-mounted electronic device and transmitting the message to the at least one of the base station or RSU or (ii) transmitting a message intended for the vehicle-mounted electronic device to the at least one of the base station or RSU for forwarding the message to the vehicle-mounted electronic device.