mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for simulating a downhole fracture network, the method comprising: determining a seed point for the downhole fracture network within a constraint volume, the seed point representing a vertex of a first triangle forming part of the downhole fracture network; propagating one or more hexagonal orbits of triangles adjacent the first triangle, whereby the hexagonal orbits of triangles form the downhole fracture network; determining a size of each triangle based upon dimensions of the downhole fracture network , wherein determining the size of each triangle comprises: defining a maximum number of hexagonal orbits; and if a number of the propagated hexagonal orbits exceeds the maximum number of hexagonal orbits, setting the number of propagated hexagonal orbits to the maximum number of hexagonal orbits, thereby determining a size of each triangle; and generating the downhole fracture network . determining a seed point for the downhole fracture network within a constraint volume, the seed point representing a vertex of a first triangle forming part of the downhole fracture network; propagating one or more hexagonal orbits of triangles adjacent the first triangle, whereby the hexagonal orbits of triangles form the downhole fracture network; determining a size of each triangle based upon dimensions of the downhole fracture network , wherein determining the size of each triangle comprises: defining a maximum number of hexagonal orbits; and if a number of the propagated hexagonal orbits exceeds the maximum number of hexagonal orbits, setting the number of propagated hexagonal orbits to the maximum number of hexagonal orbits, thereby determining a size of each triangle; and defining a maximum number of hexagonal orbits; and if a number of the propagated hexagonal orbits exceeds the maximum number of hexagonal orbits, setting the number of propagated hexagonal orbits to the maximum number of hexagonal orbits, thereby determining a size of each triangle; and generating the downhole fracture network .
Monolithic membrane made of glass, - in particular designed as - a vertical membrane suspended on one or both sides and/or as - a micromechanical bending structure suspended on one or both sides, in particular designed as a deflectable spring beam suspended on one or both sides, wherein - the membrane has been released from a glass substrate by laser-induced modification of the glass substrate and subsequent wet-chemical etching, and - the membrane is designed as a vertical membrane , so that a plane of the vertical membrane extends transversely to a substrate plane of the glass substrate , characterized in that - at least one surface of the vertical membrane is bounded by a blind hole which was produced by means of laser-induced modification of the glass substrate and subsequent wet-chemical etching. - in particular designed as - a vertical membrane suspended on one or both sides and/or as - a micromechanical bending structure suspended on one or both sides, in particular designed as a deflectable spring beam suspended on one or both sides, wherein - a vertical membrane suspended on one or both sides and/or as - a micromechanical bending structure suspended on one or both sides, in particular designed as a deflectable spring beam suspended on one or both sides, wherein - the membrane has been released from a glass substrate by laser-induced modification of the glass substrate and subsequent wet-chemical etching, and - the membrane is designed as a vertical membrane , so that a plane of the vertical membrane extends transversely to a substrate plane of the glass substrate , - at least one surface of the vertical membrane is bounded by a blind hole which was produced by means of laser-induced modification of the glass substrate and subsequent wet-chemical etching.
Method for identifying a patient for later access to an electronic patient record for the patient using a communication device belonging to an inquiring person, which patient record is stored in a database using a primary key which is used to identify the patient and which has at least one explicitly associated secondary key, wherein the inquiring person is a healthcare professional, wherein the secondary key used to identify a patient is at least one subscriber information item which characterizes a subscriber in a wireless communication network, which secondary key for identification by locating the primary key is transmitted between a mobile terminal used for communication in the wireless communication network and a portal via the or via at least one communication network, wherein a second database stored on the portal is used in which the secondary key(s) are associated with the primary key, and the primary key associated with the secondary key is transmitted to the communication device, wherein the patient is identified using a mobile terminal belonging to the patient or a mobile terminal which is provided with a SIM card belonging to the patient and which sends data to the portal and/or receives data from the portal, wherein the mobile terminal sends data comprising the secondary key(s) to the portal, the portal takes the secondary key(s) as a basis for ascertaining the primary key, and further information which the data comprise is used to transmit said primary key to the communication device, wherein the data comprise identification data from the inquiring person which the portal uses to ascertain the communication device and to transmit the primary key to the communication device, wherein the patient's SIM card is used in a mobile terminal belonging to the inquiring person, and the SIM-card-related secondary key is used to ascertain the primary key, and the mobile terminal device number is used to ascertain the inquiring person and hence the communication device, or wherein the inquiring person's SIM card is used in a mobile terminal belonging to the patient, and a SIM-card-related information item is used to ascertain the inquiring person and hence the communication device, and the mobile terminal device number is used as secondary key to ascertain the primary key.
Method for replacing electrodes in an electric clamp for welding the sheet metal of a motor vehicle, comprising the following steps: (i) placing at least one electrode of the electric clamp in the related seat , (ii) welding the sheet metal of the motor vehicle a number n times, (iii) milling the at least one electrode after the weld has been made, (iv) incrementing a counter of the number of milling operations in a weld monitoring device , characterized in that it also includes the following steps: (v) using the electric clamp to measure a milled dimension of the electrode , (vi) comparing the milled dimension of the electrode with a predetermined dimension of the electrode , and (vii) determining the variation of a dimension of the milled electrode using a variable controller of the electric clamp to modify the position of the welding arms in relation to the sheet metal, wherein this value is also used to check the state of the milling machine or blade: if the variation is zero, it means that it is not cutting and as such there is a defect or excessive wear in the blade or milling machine, wherein a control device is configured to carry out the steps: (viii) replacing the at least one electrode if the milled dimension of the electrode is greater than said predetermined dimension of the electrode , or (ix) replacing the at least one electrode if the counter of the number of milling operations is greater than the predetermined number of milling operations . (i) placing at least one electrode of the electric clamp in the related seat , (ii) welding the sheet metal of the motor vehicle a number n times, (iii) milling the at least one electrode after the weld has been made, (iv) incrementing a counter of the number of milling operations in a weld monitoring device , (v) using the electric clamp to measure a milled dimension of the electrode , (vi) comparing the milled dimension of the electrode with a predetermined dimension of the electrode , and (vii) determining the variation of a dimension of the milled electrode using a variable controller of the electric clamp to modify the position of the welding arms in relation to the sheet metal, wherein this value is also used to check the state of the milling machine or blade: if the variation is zero, it means that it is not cutting and as such there is a defect or excessive wear in the blade or milling machine, (viii) replacing the at least one electrode if the milled dimension of the electrode is greater than said predetermined dimension of the electrode , or (ix) replacing the at least one electrode if the counter of the number of milling operations is greater than the predetermined number of milling operations .
Method of removing lens forming material deposited on a lens forming surface of a reusable glass mold for forming ophthalmic lenses, in particular contact lenses or intraocular lenses, the method comprising the steps of: providing a plasma , exposing the lens forming surface of the reusable glass mold to the plasma for removing the lens forming material deposited on the lens forming surface , and aspirating an off-gas generated by exposing the deposited lens forming material to be removed to the plasma ; wherein the plasma is generated under atmospheric pressure and potential-free, wherein generating the plasma under atmospheric pressure comprises generating the plasma with a plasma jet using air as a process gas, and wherein the plasma is generated with the aid of a plasma torch comprising the plasma jet , a tubular plasma jacket and an aspirator connection , the plasma jacket surrounding the space between the plasma jet and the lens forming surface of the mold, and wherein the method further comprises applying underpressure to the aspirator connection , thereby allowing aspiration of the off-gas. providing a plasma , exposing the lens forming surface of the reusable glass mold to the plasma for removing the lens forming material deposited on the lens forming surface , and aspirating an off-gas generated by exposing the deposited lens forming material to be removed to the plasma ; wherein the plasma is generated under atmospheric pressure and potential-free, wherein generating the plasma under atmospheric pressure comprises generating the plasma with a plasma jet using air as a process gas, and wherein the plasma is generated with the aid of a plasma torch comprising the plasma jet , a tubular plasma jacket and an aspirator connection , the plasma jacket surrounding the space between the plasma jet and the lens forming surface of the mold, and wherein the method further comprises applying underpressure to the aspirator connection , thereby allowing aspiration of the off-gas.
An off-road motorcycle tire comprising: a tread portion comprising a tire equator (C), a tread edge (Te) located axially outwardly of the tire equator (C), and at least one block ; the at least one block comprising a ground contact top surface having an axially extending first edge , and a first sidewall surface extending radially inwardly from the first edge ; and the first sidewall surface comprising an axially inner portion located on the tire equator side (C) and an axially outer portion located on the tread edge side (Te), said first sidewall surface being characterised in that a maximum inclined angle (θ1) of the inner portion with respect to a tire normal (n1) is greater than a maximum inclined angle (θ2) of the outer portion with respect to a tire normal (n1). a tread portion comprising a tire equator (C), a tread edge (Te) located axially outwardly of the tire equator (C), and at least one block ; the at least one block comprising a ground contact top surface having an axially extending first edge , and a first sidewall surface extending radially inwardly from the first edge ; and the first sidewall surface comprising an axially inner portion located on the tire equator side (C) and an axially outer portion located on the tread edge side (Te), said first sidewall surface being characterised in that a maximum inclined angle (θ1) of the inner portion with respect to a tire normal (n1) is greater than a maximum inclined angle (θ2) of the outer portion with respect to a tire normal (n1).
A method associated with a real-time location system , the method comprising: receiving by a mobile device (110; 204) an RF message, the RF message including timing information associated with a time of transmission of the RF message relative to a reference clock in the real-time location system ; generating an interrupt by the mobile device (110; 204) upon receipt of the RF message; in response to the interrupt, reading a value of an audio clock, the value being representative of a time since a start of an audio session associated with a received acoustic signal; synchronizing the audio clock with the reference clock based on the value; and determining a location of the mobile device (110; 204) based on the synchronizing the audio clock, wherein the mobile device (110; 204) is a smartphone having an operating system that precludes low latency readout of clock values at an application level. receiving by a mobile device (110; 204) an RF message, the RF message including timing information associated with a time of transmission of the RF message relative to a reference clock in the real-time location system ; generating an interrupt by the mobile device (110; 204) upon receipt of the RF message; in response to the interrupt, reading a value of an audio clock, the value being representative of a time since a start of an audio session associated with a received acoustic signal; synchronizing the audio clock with the reference clock based on the value; and determining a location of the mobile device (110; 204) based on the synchronizing the audio clock, wherein the mobile device (110; 204) is a smartphone having an operating system that precludes low latency readout of clock values at an application level.
A genetically modified E. Coli which expresses a recombinant phosphoribulokinase (prk) and Ribulose-Bisphosphate Carboxylase (RuBisCo) and has deletions in the genes zwf, pfkA, pfkB, gpmA and gpmB.
An apparatus of a user equipment, UE, for long term evolution, LTE, Multefire, MF, communications on one or more unlicensed channels, the apparatus comprising: a memory configured to store a first MF identifier, MF-ID; and processing circuitry coupled to the memory and configured to: initiate establishment of a first radio resource control, RRC, connection with a first MF evolved node B, eNB, associated with the first MF-ID using the one or more unlicensed channels ; identify a radio link failure associated with the first RRC connection using the one or more unlicensed channels; perform a cell selection in response to the radio link failure to select a second MF eNB; and initiate transmission of an RRC communication to the second MF eNB in response to the radio link failure using the one or more unlicensed channels, wherein the RRC communication includes an RRC connection reestablishment request, wherein the RRC connection reestablishment request includes the first MF-ID; and receive an RRC connection reestablishment rejection message from the second MF eNB, wherein the RRC connection reestablishment rejection message is based on the first MF-ID from the RRC reestablishment request. a memory configured to store a first MF identifier, MF-ID; and processing circuitry coupled to the memory and configured to: initiate establishment of a first radio resource control, RRC, connection with a first MF evolved node B, eNB, associated with the first MF-ID using the one or more unlicensed channels ; identify a radio link failure associated with the first RRC connection using the one or more unlicensed channels; perform a cell selection in response to the radio link failure to select a second MF eNB; and initiate transmission of an RRC communication to the second MF eNB in response to the radio link failure using the one or more unlicensed channels, wherein the RRC communication includes an RRC connection reestablishment request, wherein the RRC connection reestablishment request includes the first MF-ID; and receive an RRC connection reestablishment rejection message from the second MF eNB, wherein the RRC connection reestablishment rejection message is based on the first MF-ID from the RRC reestablishment request. initiate establishment of a first radio resource control, RRC, connection with a first MF evolved node B, eNB, associated with the first MF-ID using the one or more unlicensed channels ; identify a radio link failure associated with the first RRC connection using the one or more unlicensed channels; perform a cell selection in response to the radio link failure to select a second MF eNB; and initiate transmission of an RRC communication to the second MF eNB in response to the radio link failure using the one or more unlicensed channels, wherein the RRC communication includes an RRC connection reestablishment request, wherein the RRC connection reestablishment request includes the first MF-ID; and receive an RRC connection reestablishment rejection message from the second MF eNB, wherein the RRC connection reestablishment rejection message is based on the first MF-ID from the RRC reestablishment request.
A method of testing radio equipment, being a base band unit, BBU, and a remote radio head, RRH, comprising: Receiving (S0, S15), by a radio channel test apparatus , baseband data representing I/Q data of one or more radio channels via a first section of a fronthaul communication link, wherein the first section is connecting the radio channel test apparatus to the BBU, Processing (S1, S16), by the radio channel test apparatus , the baseband data representing I/Q data received via the first section according to a downlink channel model of a first radio channel, Transmitting (S2, S17), by the radio channel test apparatus , the processed baseband data representing I/Q data to a radio equipment under test via a second section of the fronthaul communication link, wherein the second section is connecting the radio channel test apparatus to the RRH, Receiving (S18), by the radio channel test apparatus , baseband data via the second section of the fronthaul communication link, Processing (S19), by the radio channel test apparatus , the baseband data received via the second section according to an uplink channel model of the first radio channel, Transmitting (S20), by the radio channel test apparatus , the processed baseband data via the first section of the fronthaul communication link, wherein the baseband data of the first section of the communication link is encoded according to a first protocol and wherein the baseband data of the second section of the communication link is encoded according to a second protocol, the second protocol being a different protocol than the first protocol. Receiving (S0, S15), by a radio channel test apparatus , baseband data representing I/Q data of one or more radio channels via a first section of a fronthaul communication link, wherein the first section is connecting the radio channel test apparatus to the BBU, Processing (S1, S16), by the radio channel test apparatus , the baseband data representing I/Q data received via the first section according to a downlink channel model of a first radio channel, Transmitting (S2, S17), by the radio channel test apparatus , the processed baseband data representing I/Q data to a radio equipment under test via a second section of the fronthaul communication link, wherein the second section is connecting the radio channel test apparatus to the RRH, Receiving (S18), by the radio channel test apparatus , baseband data via the second section of the fronthaul communication link, Processing (S19), by the radio channel test apparatus , the baseband data received via the second section according to an uplink channel model of the first radio channel, Transmitting (S20), by the radio channel test apparatus , the processed baseband data via the first section of the fronthaul communication link, wherein the baseband data of the first section of the communication link is encoded according to a first protocol and wherein the baseband data of the second section of the communication link is encoded according to a second protocol, the second protocol being a different protocol than the first protocol.
A handpiece exhibiting circumferential geometry for a medical device, the handpiece comprising: an actuating outer sleeve comprising a plurality of ribs having a tactile feel, the ribs being disposed axially on the outer sleeve ; an inner sleeve ; an internal circuit being disposed inside the inner sleeve ; wherein the outer sleeve is disposed outside the inner sleeve , the outer sleeve being configured to apply force to a portion of the inner sleeve when an external force is applied to at least one of the ribs ; wherein the handpiece is configured such that applying the force to one or more of the ribs causes an inward surface of the inner sleeve to make a physical contact with the internal circuit , which contact may be used to actuate the medical device, and removing the external force allows the ribs to assume an at rest state, thereby breaking the contact between the internal circuit and the inner surface of the inner sleeve which de-actuates the medical device. an actuating outer sleeve comprising a plurality of ribs having a tactile feel, the ribs being disposed axially on the outer sleeve ; an inner sleeve ; an internal circuit being disposed inside the inner sleeve ; wherein the outer sleeve is disposed outside the inner sleeve , the outer sleeve being configured to apply force to a portion of the inner sleeve when an external force is applied to at least one of the ribs ; wherein the handpiece is configured such that applying the force to one or more of the ribs causes an inward surface of the inner sleeve to make a physical contact with the internal circuit , which contact may be used to actuate the medical device, and removing the external force allows the ribs to assume an at rest state, thereby breaking the contact between the internal circuit and the inner surface of the inner sleeve which de-actuates the medical device.