mhurhangee/patent-ind-claim-en huggingface dataset:
An uplink switching method, wherein the method comprises: sending, by a terminal, terminal capability information to an access network device (S601), wherein the terminal capability information comprises supplementary uplink, SUL frequency band combination information, a quantity of multiple-input multiple-output, MIMO layers supported by a SUL, and a quantity of MIMO layers supported by a normal uplink, NUL, and switching time period information, wherein the quantity of MIMO layers supported by the SUL is 1, and the quantity of MIMO layers supported by the NUL is 2, the switching time period information indicates a switching time period for switching between the SUL and the NUL and the switching time period for the switching between the SUL and the NUL is longer than 0 microseconds; performing, by the terminal, transmission with the access network device on a first uplink carrier, and the first uplink carrier is one of the NUL and the SUL (S602); switching, by the terminal, from the first uplink carrier to a second uplink carrier, the second uplink carrier is another one of the NUL and the SUL (S603); and performing, by the terminal, transmission with the access network device on the second uplink carrier (S604). sending, by a terminal, terminal capability information to an access network device (S601), wherein the terminal capability information comprises supplementary uplink, SUL frequency band combination information, a quantity of multiple-input multiple-output, MIMO layers supported by a SUL, and a quantity of MIMO layers supported by a normal uplink, NUL, and switching time period information, wherein the quantity of MIMO layers supported by the SUL is 1, and the quantity of MIMO layers supported by the NUL is 2, the switching time period information indicates a switching time period for switching between the SUL and the NUL and the switching time period for the switching between the SUL and the NUL is longer than 0 microseconds; performing, by the terminal, transmission with the access network device on a first uplink carrier, and the first uplink carrier is one of the NUL and the SUL (S602); switching, by the terminal, from the first uplink carrier to a second uplink carrier, the second uplink carrier is another one of the NUL and the SUL (S603); and performing, by the terminal, transmission with the access network device on the second uplink carrier (S604).
An abrasive product comprising a backing and an abrasive surface on the backing, wherein the abrasive surface comprises at least a first abrasive area and a second abrasive area , wherein abrasive properties of the first abrasive area are different from abrasive properties of the second abrasive area, and characterised by a borderline between the first abrasive area and the second abrasive area, which is a fluctuating borderline.
A method of manufacturing a sensor system comprising: forming a first structure having a substrate layer and a first sensor , the first sensor being positioned on a first side of the substrate layer ; bonding a cap structure over the first sensor on the first side of the substrate layer ; depositing a first dielectric layer over the cap structure ; after bonding the cap structure and depositing the first dielectric layer , fabricating a second sensor on the first dielectric layer , wherein the second sensor includes components that would be damaged at a temperature that is used to bond the cap structure to the first side of the substrate layer , further wherein the second sensor is a magnetic field sensor. forming a first structure having a substrate layer and a first sensor , the first sensor being positioned on a first side of the substrate layer ; bonding a cap structure over the first sensor on the first side of the substrate layer ; depositing a first dielectric layer over the cap structure ; after bonding the cap structure and depositing the first dielectric layer , fabricating a second sensor on the first dielectric layer , wherein the second sensor includes components that would be damaged at a temperature that is used to bond the cap structure to the first side of the substrate layer , further wherein the second sensor is a magnetic field sensor.
An aircraft system comprising: a gearbox which is an accessory gearbox for a gas turbine engine , wherein the gearbox is operationally connected to one or more of a starter , an aircraft generator , a hydraulic pump and an engine oil pump ; an air cycle machine, ACM for an environmental control system, ECS, the ACM operationally connected to the gearbox , the ACM comprising: a turbine ; a compressor ; a compressor shaft connected to the compressor and configured to receive rotational energy from the gearbox ; and a turbine shaft connected to the turbine and configured to provide rotational energy to the gearbox; wherein the compressor and turbine are rotationally decoupled from each other inside the ACM , wherein the gearbox is configured for rotationally connecting with the compressor shaft via a first mounting pad and with the turbine shaft via a second mounting pad , wherein each mounting pad is a gearbox coupling having a different gear ratio for connecting with a different gear or set of gears within the gearbox , so that the turbine shaft and the compressor shaft are configured to operate at different rotational speeds. a gearbox which is an accessory gearbox for a gas turbine engine , wherein the gearbox is operationally connected to one or more of a starter , an aircraft generator , a hydraulic pump and an engine oil pump ; an air cycle machine, ACM for an environmental control system, ECS, the ACM operationally connected to the gearbox , the ACM comprising: a turbine ; a compressor ; a compressor shaft connected to the compressor and configured to receive rotational energy from the gearbox ; and a turbine shaft connected to the turbine and configured to provide rotational energy to the gearbox; wherein the compressor and turbine are rotationally decoupled from each other inside the ACM , wherein the gearbox is configured for rotationally connecting with the compressor shaft via a first mounting pad and with the turbine shaft via a second mounting pad , wherein each mounting pad is a gearbox coupling having a different gear ratio for connecting with a different gear or set of gears within the gearbox , so that the turbine shaft and the compressor shaft are configured to operate at different rotational speeds. a turbine ; a compressor ; a compressor shaft connected to the compressor and configured to receive rotational energy from the gearbox ; and a turbine shaft connected to the turbine and configured to provide rotational energy to the gearbox; wherein the compressor and turbine are rotationally decoupled from each other inside the ACM , wherein the gearbox is configured for rotationally connecting with the compressor shaft via a first mounting pad and with the turbine shaft via a second mounting pad , wherein each mounting pad is a gearbox coupling having a different gear ratio for connecting with a different gear or set of gears within the gearbox , so that the turbine shaft and the compressor shaft are configured to operate at different rotational speeds.
A method of manufacturing a liquid jet head chip, comprising: a substrate preparation step (S1) of preparing an actuator plate substrate (AW) having a jet channel to be communicated with a nozzle hole configured to jet liquid, and a non-jet channel which does not jet the liquid; and a protective film formation step (S8) of forming a protective film configured to protect an electrode formed on an inner surface of the jet channel from the liquid in a state in which the jet channel is exposed and the non-jet channel is covered, after the substrate preparation step, wherein the actuator plate substrate has a first surface on which a nozzle plate provided with the nozzle hole communicated with the jet channel is disposed, in the protective film formation step (S8), a mask (Ma,42) having an opening part from which the jet channel is exposed is disposed on the first surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part, the actuator plate substrate further has a second surface crossing the first surface, and in the protective film formation step, the mask (Ma)is disposed so as to straddle the first surface and the second surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part. a substrate preparation step (S1) of preparing an actuator plate substrate (AW) having a jet channel to be communicated with a nozzle hole configured to jet liquid, and a non-jet channel which does not jet the liquid; and a protective film formation step (S8) of forming a protective film configured to protect an electrode formed on an inner surface of the jet channel from the liquid in a state in which the jet channel is exposed and the non-jet channel is covered, after the substrate preparation step, wherein the actuator plate substrate has a first surface on which a nozzle plate provided with the nozzle hole communicated with the jet channel is disposed, in the protective film formation step (S8), a mask (Ma,42) having an opening part from which the jet channel is exposed is disposed on the first surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part, the actuator plate substrate further has a second surface crossing the first surface, and in the protective film formation step, the mask (Ma)is disposed so as to straddle the first surface and the second surface of the actuator plate substrate, and then, the protective film is provided to the jet channel through the opening part.
A linear power distribution arrangement having a linear supply unit with at least one protective conductor and a housing body , wherein the linear supply unit is mounted in the housing body , wherein a fixing element is provided, said fixing element having a contact web and a number of retaining legs which are electrically connected to one another, wherein the contact web engages on the protective conductor and the one or more holding legs engage between the linear supply unit and the housing body such that the one or more holding legs are both in contact with the linear supply unit and in electrical contact with the housing body , characterized in that the holding legs in each case have a plurality of lamella elements which are arranged one behind the other in a linear direction of extent (x).
A restoration material for use in a method of treating completely ruptured tendon and accompanying bone injury, after tendon suture surgery, wherein the restoration material is a dried amniotic membrane and is obtained by subjecting a fresh amniotic membrane wrapping a fetus of an animal including a human to a drying treatment, and which has been dehydrated and dried so that the dried amniotic membrane can be stored in a dry atmosphere in a sterile state, and in which epithelial cells, a basement membrane, and a connective tissue constituting the fresh amniotic membrane are retained in an amniotic membrane resulting from rehydration by immersion in water or a buffer solution, and wherein said method comprises placing the restoration material between the injured bone and the ruptured tendon so as to reduce adhesion without inhibiting bone formation. wherein the restoration material is a dried amniotic membrane and is obtained by subjecting a fresh amniotic membrane wrapping a fetus of an animal including a human to a drying treatment, and which has been dehydrated and dried so that the dried amniotic membrane can be stored in a dry atmosphere in a sterile state, and in which epithelial cells, a basement membrane, and a connective tissue constituting the fresh amniotic membrane are retained in an amniotic membrane resulting from rehydration by immersion in water or a buffer solution, and wherein said method comprises placing the restoration material between the injured bone and the ruptured tendon so as to reduce adhesion without inhibiting bone formation.
A security apparatus connectable to one or a plurality of buses , comprising: a receiver configured to receive a frame from one of the buses ; a storage configured to store a plurality of examination parameters that are different from each other, wherein one of the examination parameters identifies a condition of the frame; a checker configured to determine whether a predetermined condition is satisfied for the received frame; an updater configured to update an examination parameter from the plurality of examination parameters stored in the storage , in a case where the predetermined condition is satisfied for the received frame; and an examiner configured to perform an examination, based on the updated examination parameter stored in the storage , in terms of judgement of whether or not the received frame is an attack frame. a receiver configured to receive a frame from one of the buses ; a storage configured to store a plurality of examination parameters that are different from each other, wherein one of the examination parameters identifies a condition of the frame; a checker configured to determine whether a predetermined condition is satisfied for the received frame; an updater configured to update an examination parameter from the plurality of examination parameters stored in the storage , in a case where the predetermined condition is satisfied for the received frame; and an examiner configured to perform an examination, based on the updated examination parameter stored in the storage , in terms of judgement of whether or not the received frame is an attack frame.
A method for inspecting filled containers, wherein the liquid located in the container is illuminated with a first radiation device and the radiation scattered and/or reflected by the liquid located in the container is recorded at least partially by a first image-recording device , wherein the radiation passes along a first image-recording path (P1) from the first radiation device to the image-recording device and the image-recording device records a spatially resolved image of the radiation striking it and with a further radiation device , which radiates radiation along a second image-recording path (P2) onto the container and the radiation reflected and/or thrown back by the container is recorded in order to distinguish particles located within the liquid and specific for the liquid from foreign objects located in the liquid, characterized in that the two images taken along the two different image-recording paths are compared with one another, wherein a location which is visible in several images is assigned to a category "gas bubbles and/or product-specific particles" and a location which is visible in one image and not in another one is assigned to a category "broken glass", wherein the two radiation devices are arranged at different positions and illuminate the container or its content from different directions, and only one image-recording device is provided to record the two images, wherein these images are taken from the same direction and the image-recording device is arranged underneath the container .
A method for producing a fiberoptic fan-out, comprising: creating a splice joint between a first fiberoptic cable and two or more second fiberoptic cables , such that at the splice joint, each of a plurality of first optical fibers in the first fiberoptic cable is spliced to a respective second optical fiber in one of the second fiberoptic cables, wherein creating the splice joint comprises fitting a tubular splice protector over the splice joint; sliding a tube over the cables to a position at which the splice joint is contained inside the tube, wherein the tube contains an internal shoulder , and wherein sliding the tube comprises sliding the tubular splice protector into the tube until an end of the tubular splice protector engages the internal shoulder; and while the splice joint is contained inside the tube, filling the tube with a fixative so as to fix the splice joint in the position. creating a splice joint between a first fiberoptic cable and two or more second fiberoptic cables , such that at the splice joint, each of a plurality of first optical fibers in the first fiberoptic cable is spliced to a respective second optical fiber in one of the second fiberoptic cables, wherein creating the splice joint comprises fitting a tubular splice protector over the splice joint; sliding a tube over the cables to a position at which the splice joint is contained inside the tube, wherein the tube contains an internal shoulder , and wherein sliding the tube comprises sliding the tubular splice protector into the tube until an end of the tubular splice protector engages the internal shoulder; and while the splice joint is contained inside the tube, filling the tube with a fixative so as to fix the splice joint in the position.
Printing system comprising a storage unit , a print unit , a control unit and a user interface , the storage unit comprising a print media catalog comprising a list of print media, each print medium in the list having a plurality of media attribute values characterizing the print medium, and each print medium categorized in at least one group based on at least one media attribute value, the print unit comprising a print head for ejecting marking material on a print medium of the list , and the control unit configured to control the printing on a print medium of the list according to a plurality of optimization parameters, an optimization parameter being related to the at least one media attribute value used for categorization in a group of the at least one group , to receive a value of a particular optimization parameter related to a first media attribute value of a print medium categorized in a particular group by means of the user interface , to store the value of the particular optimization parameter in the storage unit of the printing system , and to automatically propagate the received value to other print media categorized in the same particular group, and characterized in that the particular optimization parameter is a parameter for a curl correction determined by a particular size-weight combination of the print medium.
Method for predicting the failure of an elementary relay having a switch for switching a load contact of a load circuit and an excitation coil for actuating the switch , wherein the method comprising the following steps: Exciting the excitation coil in order to switch on the load contact ; Detecting a time characteristic of a contact voltage at the load contact when switching on the load contact ; Extracting a characteristic feature from the time characteristic of the contact voltage ; and Monitoring the characteristic feature during operation of the elementary relay , characterized in that the characteristic feature comprises a contact voltage noise at the load contact during the switching-on process of the elementary relay . Exciting the excitation coil in order to switch on the load contact ; Detecting a time characteristic of a contact voltage at the load contact when switching on the load contact ; Extracting a characteristic feature from the time characteristic of the contact voltage ; and Monitoring the characteristic feature during operation of the elementary relay , characterized in that the characteristic feature comprises a contact voltage noise at the load contact during the switching-on process of the elementary relay .
A method for manufacturing a zeolite membrane, comprising: adhering zeolite seed crystals to a surface of a porous body so as to manufacture the zeolite membrane, wherein the zeolite seed crystals have oxygen eight-membered rings to manufacture the zeolite membrane with pores of zeolite having eight oxygen atoms in their constituting parts, the zeolite membrane being exemplified by an LTA type, a DDR type, a CHA type, an AEI type, and an RHO type zeolite, and the average particle diameter of the zeolite seed crystals ranges from 105 nm to 450 nm, characterized by subjecting the porous body to heat treatment at 400°C or more in the presence of oxygen as pretreatment, after the firing process of the porous body and before adhering the zeolite seed crystals to the porous body, wherein the average pore diameter on the surface of the porous body on which the zeolite membrane having oxygen eight-membered rings is to be formed ranges from 70 nm to 150 nm. adhering zeolite seed crystals to a surface of a porous body so as to manufacture the zeolite membrane, wherein the zeolite seed crystals have oxygen eight-membered rings to manufacture the zeolite membrane with pores of zeolite having eight oxygen atoms in their constituting parts, the zeolite membrane being exemplified by an LTA type, a DDR type, a CHA type, an AEI type, and an RHO type zeolite, and the average particle diameter of the zeolite seed crystals ranges from 105 nm to 450 nm, characterized by subjecting the porous body to heat treatment at 400°C or more in the presence of oxygen as pretreatment, after the firing process of the porous body and before adhering the zeolite seed crystals to the porous body, wherein the average pore diameter on the surface of the porous body on which the zeolite membrane having oxygen eight-membered rings is to be formed ranges from 70 nm to 150 nm.
A process for the obtention of a compound of the formula (I) R1-C(O)X having a reduced content of impurities, wherein R1 is selected from the group consisting of CF 3 , CClF 2 and CHF 2 X is a Cl, which comprises a) subjecting a crude fraction comprising compound of formula (I) R1-C(O)X and impurities to at least three distillation steps, which consist of a high pressure distillation step, a medium pressure distillation step and a low pressure distillation step carried out at different pressures, wherein the high pressure distillation step and the medium pressure distillation step carried out at a pressure of at least 1 bar lower than the high pressure distillation step, and the low pressure distillation step carried out at a pressure of at least 0,2 bar lower than the medium pressure distillation step and b) recovering at least a fraction of the compound of the formula (I) having a reduced content of impurities.
A composition suitable for intravenous or intra-arterial injection, the composition comprising a stable diglyceride (DG) oil-in-water emulsion; wherein the emulsion comprises 10% by weight of a DG oil, the esterified fatty acids of the DG oil being at least about 90% n-3 fatty acids and comprising DHA and EPA; wherein the emulsion has a mean particle size of from 110 nm to 180 nm with a polydispersity index of 0.3 or less, and a zeta potential (ZP) of about -30 mV or more negative than -30 mV; wherein the emulsion further comprises phospholipid emulsifier, which comprises phosphatidylcholine; and wherein the emulsion optionally further comprises oleic acid emulsifier, which is optionally present at from about 0.01% to about 0.1% by weight. wherein the emulsion further comprises phospholipid emulsifier, which comprises phosphatidylcholine; and wherein the emulsion optionally further comprises oleic acid emulsifier, which is optionally present at from about 0.01% to about 0.1% by weight.