mhurhangee/patent-ind-claim-en huggingface dataset:
A system for visualizing catheter irrigation, the system comprising: a first fluid , which is at least partially transparent and has a first temperature; a second fluid which is at least partially transparent and has a second different temperature; a catheter having one or more irrigation holes ; a fluid container , configured to: (i) contain the first fluid and (ii) receive into the first fluid the catheter ; a pump , configured to inject, through the one or more irrigation holes , the second fluid ; a schlieren imaging assembly , configured to acquire schlieren images of turbulence occurring in the first fluid when injecting the second fluid; and a processor , which is configured to visualize the irrigation using the schlieren images. a first fluid , which is at least partially transparent and has a first temperature; a second fluid which is at least partially transparent and has a second different temperature; a catheter having one or more irrigation holes ; a fluid container , configured to: (i) contain the first fluid and (ii) receive into the first fluid the catheter ; a pump , configured to inject, through the one or more irrigation holes , the second fluid ; a schlieren imaging assembly , configured to acquire schlieren images of turbulence occurring in the first fluid when injecting the second fluid; and a processor , which is configured to visualize the irrigation using the schlieren images.
A fluid-driven medical handheld device, comprising a head , the head comprising a housing and an impeller being rotatably mounted in the housing , the housing defining a receiving chamber for receiving the impeller , a main air inlet and an air outlet being defined in the housing and communicating with the receiving chamber , characterized in that, an inner surface of the housing surrounding the receiving chamber defines a plurality of grooves , the grooves being arranged at intervals in a circumferential direction of the housing , that a recessed depth of the grooves relative to the inner surface surrounding the receiving chamber along the radial direction is equal to or less than 1.0 mm and that the grooves are configured to reflect rotating airflows directed to the grooves to change directions and speeds of the airflows to form interference airflows, which can effectively reduce the rotation speed of the impeller at idling.
A blow mould assembly for forming plastic preforms into plastic containers, comprising a blow mould unit forming a cavity , within which the plastic preforms can be expanded into plastic containers, wherein said blow mould unit is formed at least in two parts, and comprises a blow mould holder for receiving the blow mould unit, wherein the blow mould holder has at least two mould holder elements for receiving parts of the blow mould unit , and comprising a locking mechanism in order to arrest at least a part of the blow mould unit in relation to at least one mould holder element , wherein said locking mechanism has an engagement member pivotable in relation to a specified axis (X), which engagement member rests in an arrested state of part of the blow mould unit in relation to a mould holder element on a section of the part of the blow mould unit , wherein the locking mechanism has an actuating member , in order to release an arrest between the mould holder element and the blow mould unit , and a movement of this actuating member is coupled to the movement of the engagement member , wherein the blow mould unit is a blow mould that directly forms the cavity for expanding the preform, and wherein the blow mould holder is a blow mould shell that directly receives the blow mould, wherein the engagement member includes at least one rounded outer surface, characterized in that this rounded outer surface is provided at one end of the engagement member, which is located opposite an engagement area where the engagement member contacts the blow mould in an arrested state. wherein the locking mechanism has an actuating member , in order to release an arrest between the mould holder element and the blow mould unit , and a movement of this actuating member is coupled to the movement of the engagement member , wherein the blow mould unit is a blow mould that directly forms the cavity for expanding the preform, and wherein the blow mould holder is a blow mould shell that directly receives the blow mould, wherein the engagement member includes at least one rounded outer surface, characterized in that this rounded outer surface is provided at one end of the engagement member, which is located opposite an engagement area where the engagement member contacts the blow mould in an arrested state.
A method, performed in a radio node , of assigning resources for device-to-device control signalling, the method comprising: - assigning (S1) resources for device-to-device control signalling transmission within an area controlled by the radio node, wherein the resources are overlapping with sets of resources for device-to-device control signalling in a further cell or cluster defined by a further radio node, and - transmitting (S2), to wireless devices controlled by the radio node, a message (P01) indicating resources assigned for device-to-device control signalling and identifiers for a cell or cluster defined by the radio node and the further cell or cluster defined by the further radio node, the identifiers for determining respective DRX cycles in the cell and the further cell for the wireless devices to adopt different DRX cycles depending on positions of the wireless devices. - assigning (S1) resources for device-to-device control signalling transmission within an area controlled by the radio node, wherein the resources are overlapping with sets of resources for device-to-device control signalling in a further cell or cluster defined by a further radio node, and - transmitting (S2), to wireless devices controlled by the radio node, a message (P01) indicating resources assigned for device-to-device control signalling and identifiers for a cell or cluster defined by the radio node and the further cell or cluster defined by the further radio node, the identifiers for determining respective DRX cycles in the cell and the further cell for the wireless devices to adopt different DRX cycles depending on positions of the wireless devices.
A method of diagnosing B-CLL in a subject in need thereof, the method comprising determining in a biological sample of the subject a level of CD84 isoform C (SEQ ID NO: 30), wherein an increase in said level of said CD84 isoform C (SEQ ID NO: 30) beyond a predetermined threshold with respect to a level of said CD84 in a biological sample from a healthy individual is indicative of the B-CLL.
An immunoglobulin heavy chain locus of a transgenic mouse comprising a long DH (LDH) cassette encoding an antigen-binding HCDR3, which LDH cassette comprises a recombinant DH construct comprising at least two fused DH gene segments encoding an HCDR3 amino acid sequence with a length of at least 10 amino acids, wherein at least one of the DH gene segments is a heterologous DH gene segment, and a) said at least two fused DH gene segments are directly fused; or b) said at least two fused DH gene segments comprise separate DH gene segments, wherein at least one is a human DH gene segment, connected by an intergenic region that is heterologous to the human DH gene segment, which locus is functional in a transgenic mouse to express said HCDR3 amino acid sequence. a) said at least two fused DH gene segments are directly fused; or b) said at least two fused DH gene segments comprise separate DH gene segments, wherein at least one is a human DH gene segment, connected by an intergenic region that is heterologous to the human DH gene segment,
Method for enabling coherent reception of a radio signal comprising the following steps: a) tuning a radio receiver to a first receiver frequency (X1), b) generating within the radio receiver a test signal having a first test frequency, c) measuring a first phase of the test signal while the radio receiver is tuned to the first receiver frequency (X1), d) tuning the radio receiver to a second receiver frequency (X2), which is different from the first receiver frequency (X1), e) measuring a second phase of the test signal while the radio receiver is tuned to the second receiver frequency (X2), f) calculating a phase relationship depending on the first and second phases of the test signal. a) tuning a radio receiver to a first receiver frequency (X1), b) generating within the radio receiver a test signal having a first test frequency, c) measuring a first phase of the test signal while the radio receiver is tuned to the first receiver frequency (X1), d) tuning the radio receiver to a second receiver frequency (X2), which is different from the first receiver frequency (X1), e) measuring a second phase of the test signal while the radio receiver is tuned to the second receiver frequency (X2), f) calculating a phase relationship depending on the first and second phases of the test signal.
An acoustic emission sensor , comprising: a sensing element configured to sense an acoustic emission from an acoustic emission source; a pre-amplifier configured to condition an acoustic emission signal generated based on the acoustic emission sensed by the sensing element ; a demodulator configured to generate demodulated acoustic emission data based on combining the acoustic emission signal with a chirp signal, the demodulator including: a chirp generator configured to generate a chirp signal based on at least one of a start frequency, an end frequency, or a sweep time; a mixer configured to combine the chirp signal with the acoustic emission signal to generate mixed acoustic emission data; and a data extractor configured to filter the mixed acoustic emission data based on a filter bandwidth to generate filtered mixed acoustic emission data, and to convert the filtered mixed acoustic emission data to the demodulated acoustic emission data; and a transmitter configured to transmit the demodulated acoustic emission data to a data acquisition system , wherein the data extractor is configured to generate the demodulated acoustic emission data which is a low-resolution and high-bandwidth spectrum by sampling one or more measurements of the filtered mixed acoustic emission data in sync with the chirp signal. a sensing element configured to sense an acoustic emission from an acoustic emission source; a pre-amplifier configured to condition an acoustic emission signal generated based on the acoustic emission sensed by the sensing element ; a demodulator configured to generate demodulated acoustic emission data based on combining the acoustic emission signal with a chirp signal, the demodulator including: a chirp generator configured to generate a chirp signal based on at least one of a start frequency, an end frequency, or a sweep time; a mixer configured to combine the chirp signal with the acoustic emission signal to generate mixed acoustic emission data; and a data extractor configured to filter the mixed acoustic emission data based on a filter bandwidth to generate filtered mixed acoustic emission data, and to convert the filtered mixed acoustic emission data to the demodulated acoustic emission data; and a chirp generator configured to generate a chirp signal based on at least one of a start frequency, an end frequency, or a sweep time; a mixer configured to combine the chirp signal with the acoustic emission signal to generate mixed acoustic emission data; and a data extractor configured to filter the mixed acoustic emission data based on a filter bandwidth to generate filtered mixed acoustic emission data, and to convert the filtered mixed acoustic emission data to the demodulated acoustic emission data; and a transmitter configured to transmit the demodulated acoustic emission data to a data acquisition system , wherein the data extractor is configured to generate the demodulated acoustic emission data which is a low-resolution and high-bandwidth spectrum by sampling one or more measurements of the filtered mixed acoustic emission data in sync with the chirp signal.
A system comprised of a floor processing device , an object located in the environment of the floor processing device , which has a partial object area and a displacement device for automatically displacing the partial object area , a detection device , which is suitable for detecting a presence of the floor processing device in a detection area of the detection device , and a control device for generating a control command for the displacement device as a function of the detection result of the detection device , characterized in that the control command is suitable for deactivating the displacement device , thereby preventing a displacement of the partial object area even if the floor processing device is present in the detection area .
A process for carrying out a chemical reaction of a substrate (X) in a diluted reaction mixture comprising a solvent (S), the reaction being selected from a cyclisation reaction, a polymerization reaction, an enzymatic reaction showing substrate inhibition, an enzymatic reaction showing product inhibition, a reaction showing precipitation of the substrate or of the reactant, and combinations thereof, the process comprising the steps of a) supplying a diluted substrate-solvent mixture to the inlet of a reactor , b) causing the reaction medium in the reactor to react, c) discharging, from an outlet of the reactor , reaction mixture comprising reaction product, solvent, and substrate that has not reacted, d) conducting the reaction mixture to a first filtration membrane , with a retentate side and a permeate side , wherein the first filtration membrane is permeable to the solvent (S), wherein the first filtration membrane has a substrate (X) rejection of 80%-100% and a rejection of the reaction product of 80%-100%, e) returning retentate (R) comprising substrate (X) that has not reacted, and the reaction product from the retentate side of the first filtration membrane to the reactor , characterized in that in step (a) said diluted substrate-solvent mixture is supplied to said inlet of said reactor from a diluting substrate feed system diluting a substrate from a substrate feed tank ; and characterised in that the process further comprises the step of returning solvent (S) which permeated the first filtration membrane from the permeate side of the first membrane to said diluting substrate feed system to dilute the substrate in the diluting substrate feed system thereby forming the diluted substrate-solvent mixture. a) supplying a diluted substrate-solvent mixture to the inlet of a reactor , b) causing the reaction medium in the reactor to react, c) discharging, from an outlet of the reactor , reaction mixture comprising reaction product, solvent, and substrate that has not reacted, d) conducting the reaction mixture to a first filtration membrane , with a retentate side and a permeate side , wherein the first filtration membrane is permeable to the solvent (S), wherein the first filtration membrane has a substrate (X) rejection of 80%-100% and a rejection of the reaction product of 80%-100%, e) returning retentate (R) comprising substrate (X) that has not reacted, and the reaction product from the retentate side of the first filtration membrane to the reactor ,
Folding device to make two parallel folds at a distance (B) from each other in a leaf of paper or the like, whereby the device contains two clamps with a sharp, folding edge , each formed by two clamping bars characterised in that the clamping bars have pointed jaws which can be moved relative to each other between an open position with an opening between the clamping bars to feed the leaf to be folded and a closed position for clamping the leaf to be folded during the folding, whereby the clamps to feed the leaf are arranged opposite each other with their folding edges parallel and facing each other at a distance (B) equal to the desired distance between the folds to be made and whereby the folding device also contains means to move the clamps relative to each other in their closed position in such a way that one of the clamps with its folding edge makes a circular movement around the folding edge of the other clamp to form both parallel folds at the level of the folding edges of both clamps .
A time of flight tube assembly comprising: a reflectron assembly comprising a lens stack; an inner tube comprising an effective thickness and sized and arranged to couple to and support the reflectron assembly inside the inner tube , the inner tube comprising a coated conductive metal material that is substantially inert and is disposed along an entire length of an inner surface of the inner tube to provide a selected electrical potential along the inner tube , the conductive metal material present in an effective amount to provide a field free region for ions when the conductive metal material is charged from a current applied to the conductive metal material , wherein the inner tube , couples to the reflectron assembly and receives the reflectron assembly inside the inner tube ; an outer tube surrounding the inner tube , the outer tube effective to insulate the inner tube and electrically isolate the inner tube from the outer tube such that the current applied to the conductive metal material of the inner tube is not provided to the outer tube ; and an air gap between the inner tube and the outer tube . a reflectron assembly comprising a lens stack; an inner tube comprising an effective thickness and sized and arranged to couple to and support the reflectron assembly inside the inner tube , the inner tube comprising a coated conductive metal material that is substantially inert and is disposed along an entire length of an inner surface of the inner tube to provide a selected electrical potential along the inner tube , the conductive metal material present in an effective amount to provide a field free region for ions when the conductive metal material is charged from a current applied to the conductive metal material , wherein the inner tube , couples to the reflectron assembly and receives the reflectron assembly inside the inner tube ; an outer tube surrounding the inner tube , the outer tube effective to insulate the inner tube and electrically isolate the inner tube from the outer tube such that the current applied to the conductive metal material of the inner tube is not provided to the outer tube ; and an air gap between the inner tube and the outer tube .
A method comprising: communicating user account information to a commercial entity via a first communication component of an electronic device; receiving, from the commercial entity via the first communication component and responsive to communicating the user account information, a list comprising at least one commerce credential associated with the user account information under control of the commercial entity, the at least one commerce credential having passed a commercial entity fraud check performed by the commercial entity and a financial entity fraud check commissioned by the commercial entity based on results of the commercial entity fraud check; and transmitting a request to the commercial entity via the first communication component for initiating a credential provisioning process for provisioning, on the electronic device, of a credential corresponding to at least one of the at least one commerce credential associated with the user account information under the control of the commercial entity. communicating user account information to a commercial entity via a first communication component of an electronic device; receiving, from the commercial entity via the first communication component and responsive to communicating the user account information, a list comprising at least one commerce credential associated with the user account information under control of the commercial entity, the at least one commerce credential having passed a commercial entity fraud check performed by the commercial entity and a financial entity fraud check commissioned by the commercial entity based on results of the commercial entity fraud check; and transmitting a request to the commercial entity via the first communication component for initiating a credential provisioning process for provisioning, on the electronic device, of a credential corresponding to at least one of the at least one commerce credential associated with the user account information under the control of the commercial entity.
A composition comprising micronized leonardite, amino acids and surfactants, wherein the leonardite comprises between 50% and 90% w/w of the total humic substance on dry base, wherein the composition is an aqueous dispersion and has an acidic pH comprised between 3 and 6.
A message processing method on a cloud computing platform, comprising: receiving , by a message processing apparatus, an input request message, and sending , by the message processing apparatus, the request message to an active server and a standby server that are deployed on the cloud computing platform, wherein a same application program runs on the active server and the standby server; and receiving , by the message processing apparatus, multiple input response messages returned by the active server and the standby server and sending , by the message processing apparatus, one of the input response messages to an external device, characterized in that sending one of the input response messages comprises: sending an input response message returned by a virtual machine with a maximum health degree in the active server and the standby server. receiving , by a message processing apparatus, an input request message, and sending , by the message processing apparatus, the request message to an active server and a standby server that are deployed on the cloud computing platform, wherein a same application program runs on the active server and the standby server; and receiving , by the message processing apparatus, multiple input response messages returned by the active server and the standby server and sending , by the message processing apparatus, one of the input response messages to an external device, characterized in that sending one of the input response messages comprises: sending an input response message returned by a virtual machine with a maximum health degree in the active server and the standby server.
A method for producing a polymer composition for semiconductor optoelectronics, comprising the steps of - providing a monomer having the formula: (R 1 ) x Si(R 2 ) y or Ia (R 1 ) x Si-R 3 -Si(R 2 ) y IIa wherein: R 1 is a hydrolysable group R 2 is a functional organic group, R 3 is an optional bridging linear or branched bivalent hydrocarbyl group, and x and y are integers from 1 to 3, - homo- or copolymerizing the monomer to produce a polymer or copolymer, and - combining the polymer or copolymer with nanoparticles to provide a polymer composition, wherein the nanoparticle surface contains one or more silane coupling groups. - providing a monomer having the formula: (R 1 ) x Si(R 2 ) y or Ia (R 1 ) x Si-R 3 -Si(R 2 ) y IIa wherein: R 1 is a hydrolysable group R 2 is a functional organic group, R 3 is an optional bridging linear or branched bivalent hydrocarbyl group, and x and y are integers from 1 to 3, R 1 is a hydrolysable group R 2 is a functional organic group, R 3 is an optional bridging linear or branched bivalent hydrocarbyl group, and x and y are integers from 1 to 3, - homo- or copolymerizing the monomer to produce a polymer or copolymer, and - combining the polymer or copolymer with nanoparticles to provide a polymer composition, wherein the nanoparticle surface contains one or more silane coupling groups.