mhurhangee/ep-ind-claims huggingface dataset:
Non-reactive hot-melt adhesive comprising: - 10-90 wt.%, calculated on the weight of the adhesive, of amorphous thermoplastic resin which is compatible with polylactic acid; - 10-90 wt.%, calculated on the weight of the adhesive, of a polylactic acid polymer unit (PLAU) selected from poly-L- lactic acid (PLLAU) and poly-D-lactic acid (PDLAU), the unit having a number average molecular weight (Mn) of at least 0.75 kg/mol; and, - 0.5-20 wt.%, preferably 1-10 wt.%, calculated on the weight of the first PLAU, of a second polylactic acid polymer unit (PLAU) selected from poly-L-lactic acid (PLLAU) and poly-D- lactic acid (PDLAU), the unit having a number average molecular weight (Mn) of at least 0.75 kg/mol, wherein when the first PLAU is PLLAU, the second PLAU is PDLAU and when the first PLAU is PDLAU, the second PLAU is PLLAU, wherein the number average molecular weight is measured as indicated in the description. - 10-90 wt.%, calculated on the weight of the adhesive, of amorphous thermoplastic resin which is compatible with polylactic acid; - 10-90 wt.%, calculated on the weight of the adhesive, of a polylactic acid polymer unit (PLAU) selected from poly-L- lactic acid (PLLAU) and poly-D-lactic acid (PDLAU), the unit having a number average molecular weight (Mn) of at least 0.75 kg/mol; and, - 0.5-20 wt.%, preferably 1-10 wt.%, calculated on the weight of the first PLAU, of a second polylactic acid polymer unit (PLAU) selected from poly-L-lactic acid (PLLAU) and poly-D- lactic acid (PDLAU), the unit having a number average molecular weight (Mn) of at least 0.75 kg/mol, wherein when the first PLAU is PLLAU, the second PLAU is PDLAU and when the first PLAU is PDLAU, the second PLAU is PLLAU, wherein the number average molecular weight is measured as indicated in the description.
A scintillator, comprising: a first crystal phase including multiple columnar crystals having unidirectionality; and a second crystal phase as a matrix by filling the space between the multiple columnar crystals, wherein the first crystal phase comprises a perovskite type oxide material including at least one element selected from the group consisting of Lu and Gd, and a rare earth element as an emission center, and wherein the first crystal phase emits light by radiation excitation. a first crystal phase including multiple columnar crystals having unidirectionality; and a second crystal phase as a matrix by filling the space between the multiple columnar crystals, wherein the first crystal phase comprises a perovskite type oxide material including at least one element selected from the group consisting of Lu and Gd, and a rare earth element as an emission center, and wherein the first crystal phase emits light by radiation excitation.
Method of laser machining a substrate for a watch component, by means of a laser source (4, 8, 10) designed to emit pulses (P1,..., P4) of duration equal to or less than one picosecond and arranged to define an incident laser beam movable relative to said substrate and to perform engraving on the latter, comprising the steps consisting in: - providing a metal or ceramic substrate to be engraved, - programming said laser source (4, 8, 10) to define at least a first engraving vector on said substrate, delimited by a starting point and an end point, both located at the periphery of the engraving, and consisting of a path to be traversed by said incident laser beam relative to said substrate and of a series of impacts of said incident laser beam on said substrate, along said path, characterized in that said laser source (4, 8, 10) is programmed in such a way that the first pulse associated with the first impact of said incident laser beam on said substrate is emitted after said incident laser beam has left said starting point to begin its movement relative to said substrate, and that the last pulse associated with the last impact of said incident laser beam on said substrate is emitted before said incident laser beam has reached said end point and completed its movement relative to said substrate. - providing a metal or ceramic substrate to be engraved, - programming said laser source (4, 8, 10) to define at least a first engraving vector on said substrate, delimited by a starting point and an end point, both located at the periphery of the engraving, and consisting of a path to be traversed by said incident laser beam relative to said substrate and of a series of impacts of said incident laser beam on said substrate, along said path,
Fixation apparatus comprising a bone screw and a holder, wherein the holder has a base plate and a tension sleeve (4', 9') receiving the bone screw, wherein the bone screw comprises a shaft with a front thread and a head at the rear end, wherein the base plate comprises a through borehole and a receiving seat, in which the tension sleeve (4', 9') is mounted and able to swivel, the shaft has a thickening in a rear region, forward of the head, whose width increases toward the head, and the opening width of the tension sleeve (4', 9') is larger than the width of the shaft immediately before the thickening and smaller than the greatest width of the thickening, characterized in that a secondary thread (16', 16") is configured on the thickening (15', 15"'), which has a smaller pitch than the thread on the shaft.
An acoustic probe for application with an interventional device, comprising: a substrate having first and second surfaces, and further having at least one device insertion port comprising a tapered opening passing through the substrate from the first surface to the second surface; an instrument guide disposed within the device insertion port, the instrument guide being configured to selectively allow the interventional device to move freely within the device insertion port; and an array of acoustic transducer elements supported by the substrate and defining an area of the substrate, said array disposed around the at least one device insertion port; and characterized in that, the instrument guide includes an encoder, said encoder arranged to indicate an orientation of the instrument guide within the device insertion port. a substrate having first and second surfaces, and further having at least one device insertion port comprising a tapered opening passing through the substrate from the first surface to the second surface; an instrument guide disposed within the device insertion port, the instrument guide being configured to selectively allow the interventional device to move freely within the device insertion port; and an array of acoustic transducer elements supported by the substrate and defining an area of the substrate, said array disposed around the at least one device insertion port; and characterized in that, the instrument guide includes an encoder, said encoder arranged to indicate an orientation of the instrument guide within the device insertion port.
A method of configuring measurement gaps during which a wireless device is to perform one or more measurements of one or more neighbor cells on one or more non-serving frequencies, said method being performed by a radio network node and characterized by: obtaining information that identifies, for each of a plurality of candidate non-serving frequencies, one or more measurement bandwidths over which one or more corresponding measurements on that non-serving frequency are to be performed; selecting a subset of said candidate non-serving frequencies based on said measurement bandwidths; and configuring measurement gaps during which the wireless device is to perform one or more measurements on the selected subset of said candidate non-serving frequencies. obtaining information that identifies, for each of a plurality of candidate non-serving frequencies, one or more measurement bandwidths over which one or more corresponding measurements on that non-serving frequency are to be performed; selecting a subset of said candidate non-serving frequencies based on said measurement bandwidths; and configuring measurement gaps during which the wireless device is to perform one or more measurements on the selected subset of said candidate non-serving frequencies.
A method of scheduling data in background services on mobile devices, comprising: identifying data consumption patterns on a mobile device; determining a user's sensitivity to data arriving at the mobile device based on the data consumption patterns; and aggregating network access by background services on the mobile device according to a schedule based on the user's sensitivity the data arriving at the mobile device characterized in that the method further comprising distinguishing between a reaction time of the user to a notification of the data arriving at the mobile device, and a reaction time of the user to the actual data, for identifying the data consumption patterns usable as an indicator of the user's sensitivity to the data of the notification. identifying data consumption patterns on a mobile device; determining a user's sensitivity to data arriving at the mobile device based on the data consumption patterns; and aggregating network access by background services on the mobile device according to a schedule based on the user's sensitivity the data arriving at the mobile device characterized in that the method further comprising distinguishing between a reaction time of the user to a notification of the data arriving at the mobile device, and a reaction time of the user to the actual data, for identifying the data consumption patterns usable as an indicator of the user's sensitivity to the data of the notification.
A secondary battery module comprising a battery block that a plurality of unit cell groups is disposed adjacently, characterized in that the battery block holds and fixes the unit cell groups by two channel shaped block bases (3, 4) which support a lower portion of the unit cell groups and two channel shaped block reinforcing plates which hold an upper portion of the unit cell groups, and wherein an elastic body is laid between the block bases (3, 4) and the unit cell groups, and wherein the block bases (3, 4) and the block reinforcing plates are disposed on corners of the unit cell groups.
A method of commissioning a plurality of nodes to a wireless network operating according to a first communication protocol, the method comprising the steps of: a) establishing one or more neighboring relationships among the plurality of nodes, and each one of the plurality of nodes is present in at least one of the one or more neighboring relationships; b) configuring a subset of nodes out of the plurality of nodes to operate as router nodes by enabling a multi-hop routing capability for relaying messages in the wireless network; and c) configuring the rest of the plurality of nodes, other than the router nodes, to operate as non-router nodes, which do not relay messages by disabling the multi-hop routing capability when present; and wherein the router nodes and the non-router nodes are configured based on the one or more neighboring relationships, such that within a direct communication range of a non-router node there is at least one router node; and characterized in that step a) further comprises: - preselecting a first subset of the plurality of nodes as temporary router nodes; - querying each temporary router node for at least one neighboring relationship around each temporary router node; wherein the temporary router nodes are preselected in such a manner that each one of the plurality of nodes is found at least once by one of the neighboring relationships queried from the temporary router nodes. a) establishing one or more neighboring relationships among the plurality of nodes, and each one of the plurality of nodes is present in at least one of the one or more neighboring relationships; b) configuring a subset of nodes out of the plurality of nodes to operate as router nodes by enabling a multi-hop routing capability for relaying messages in the wireless network; and c) configuring the rest of the plurality of nodes, other than the router nodes, to operate as non-router nodes, which do not relay messages by disabling the multi-hop routing capability when present; and wherein the router nodes and the non-router nodes are configured based on the one or more neighboring relationships, such that within a direct communication range of a non-router node there is at least one router node; and characterized in that step a) further comprises: - preselecting a first subset of the plurality of nodes as temporary router nodes; - querying each temporary router node for at least one neighboring relationship around each temporary router node; - preselecting a first subset of the plurality of nodes as temporary router nodes; - querying each temporary router node for at least one neighboring relationship around each temporary router node; wherein the temporary router nodes are preselected in such a manner that each one of the plurality of nodes is found at least once by one of the neighboring relationships queried from the temporary router nodes.
A method for producing a half shell of a rotor blade for a wind turbine with the following steps: • arranging a fibre material in a mould, which has an inner side, which predetermines an aerodynamic surface area of the half shell, and a pinching edge, which defines the profile of a trailing edge of the half shell, • curing a liquid plastic material surrounding the fibre material, characterized in that • an insert is arranged in relation to the mould in a predetermined position, in which a surface of the insert and a bordering portion of the inner side of the mould adjoin each other at an angle at the pinching edge so that a thinly tapering trailing edge of the half shell is formed between the surface of the insert and the bordering portion. • arranging a fibre material in a mould, which has an inner side, which predetermines an aerodynamic surface area of the half shell, and a pinching edge, which defines the profile of a trailing edge of the half shell, • curing a liquid plastic material surrounding the fibre material, characterized in that • an insert is arranged in relation to the mould in a predetermined position, in which a surface of the insert and a bordering portion of the inner side of the mould adjoin each other at an angle at the pinching edge so that a thinly tapering trailing edge of the half shell is formed between the surface of the insert and the bordering portion.
An electronic switch (EPSW) for simulating a mechanical switch retaining its position, the electronic switch (EPSW) being configured to supply power to an electronic device using an input voltage, the electronic switch (EPSW) being characterized in that it comprises: a tact switch or a pulse switch for generation of a control signal; a bi-stable circuit whose output state depends on the control signal; a switching circuit configured to open and to close a power supply line (IR, OR) supplying power to the electronic device, the switching circuit comprising a semi-conductor switching element; a memory circuit configured to store, for at least a first duration, an open or a closed state of the power supply line (IR, OR), the memory circuit comprising a reservoir capacitor, the first duration being dependent on a capacity of the reservoir capacitor; and the tact switch or the pulse switch being configured to control opening and closing of the switching circuit. a tact switch or a pulse switch for generation of a control signal; a bi-stable circuit whose output state depends on the control signal; a switching circuit configured to open and to close a power supply line (IR, OR) supplying power to the electronic device, the switching circuit comprising a semi-conductor switching element; a memory circuit configured to store, for at least a first duration, an open or a closed state of the power supply line (IR, OR), the memory circuit comprising a reservoir capacitor, the first duration being dependent on a capacity of the reservoir capacitor; and the tact switch or the pulse switch being configured to control opening and closing of the switching circuit.
A system, comprising: (a) an implantable electrical device adapted for mounting within the body of the patient; (b) an implantable power unit adapted for mounting within the body of the patient, the power unit having a receiving coil, a power circuit connected to the receiving coil so that power applied to the receiving coil can be transmitted to the implantable device; and (c) an external power supply having a transmitting coil adapted for transcutaneous inductive coupling with the receiving coil to define a system having a resonant frequency varying in relation to a distance between the transmitting and receiving coils, a drive circuit operable to apply an alternating current to the transmitting coil at a variable drive pulse width, wherein power is transmitted at a variable transmission frequency between the transmitting coil and the receiving coil, and a control circuit operable to: (i) monitor a parameter related to mutual inductance between the transmitting and receiving coils; and (ii) adjust the variable transmission frequency to a value having a predetermined difference from the resonant frequency to operate the control circuit using the monitored parameter so as to maintain the transmission frequency with a predetermined difference from the resonant frequency. (a) an implantable electrical device adapted for mounting within the body of the patient; (b) an implantable power unit adapted for mounting within the body of the patient, the power unit having a receiving coil, a power circuit connected to the receiving coil so that power applied to the receiving coil can be transmitted to the implantable device; and (c) an external power supply having a transmitting coil adapted for transcutaneous inductive coupling with the receiving coil to define a system having a resonant frequency varying in relation to a distance between the transmitting and receiving coils, a drive circuit operable to apply an alternating current to the transmitting coil at a variable drive pulse width, wherein power is transmitted at a variable transmission frequency between the transmitting coil and the receiving coil, and a control circuit operable to: (i) monitor a parameter related to mutual inductance between the transmitting and receiving coils; and (ii) adjust the variable transmission frequency to a value having a predetermined difference from the resonant frequency to operate the control circuit using the monitored parameter so as to maintain the transmission frequency with a predetermined difference from the resonant frequency. (i) monitor a parameter related to mutual inductance between the transmitting and receiving coils; and (ii) adjust the variable transmission frequency to a value having a predetermined difference from the resonant frequency to operate the control circuit using the monitored parameter so as to maintain the transmission frequency with a predetermined difference from the resonant frequency.
A method for gradient calculating, comprising: acquiring current operating parameters of a vehicle, wherein the current operating parameters include a current longitudinal acceleration, a current lateral acceleration, a current vehicle acceleration, and a current vehicle speed; determining a first influence value of the current lateral acceleration on the current longitudinal acceleration according to the current lateral acceleration and the current vehicle speed; determining a second influence value of the current vehicle acceleration on the current longitudinal acceleration according to the current vehicle acceleration and the current vehicle speed; correcting the current longitudinal acceleration according to the first influence value and the second influence value; and determining the gradient value based on the corrected current longitudinal acceleration. acquiring current operating parameters of a vehicle, wherein the current operating parameters include a current longitudinal acceleration, a current lateral acceleration, a current vehicle acceleration, and a current vehicle speed; determining a first influence value of the current lateral acceleration on the current longitudinal acceleration according to the current lateral acceleration and the current vehicle speed; determining a second influence value of the current vehicle acceleration on the current longitudinal acceleration according to the current vehicle acceleration and the current vehicle speed; correcting the current longitudinal acceleration according to the first influence value and the second influence value; and determining the gradient value based on the corrected current longitudinal acceleration.
Radial-flow reactor in which the process stream that is to be treated flows radially, comprising a shroud, process-stream introduction means and effluent-outlet means, a process-stream distribution zone, possibly catalyst introduction legs, outer and inner screens allowing the process stream that is to be treated to circulate from an outer screen as far as an inner screen situated substantially at the centre of the reactor, or conversely from the inner screen towards the outer screen, which reactor further comprises at least one additional outer screen (13, 18) having a shape suited to that of the bottom of the reactor or the top of the reactor, said additional screen (13, 18) being situated in the continuation of the outer screen, wherein the surface of the inner screen comprises, in its upper part and/or its lower part, one or more pieces of solid plate, and a perforated plate comprising a zone having specific perforations different from that of the rest of the inner screen.
A heater assembly for an aerosol-generating system, the heater assembly comprising: a fluid permeable heating element configured to vaporise a liquid aerosol-forming substrate, a transport material (124, 224, 324) configured to transport liquid aerosol-forming substrate to the fluid permeable heating element, the transport material having a thickness defined between a first surface (124a, 224a) of the transport material and an opposing second surface (124b, 224b) of the transport material, wherein the first surface is arranged in fluid communication with the fluid permeable heating element and the second surface is arranged to receive liquid aerosol-forming substrate, wherein the second surface of the transport material is provided with at least one hole (126, 226, 326) which extends into the transport material to a depth corresponding to at least a part of the thickness of the transport material to define a formed fluid channel for liquid aerosol-forming substrate, and characterized in that the first surface of the transport material is convex. a fluid permeable heating element configured to vaporise a liquid aerosol-forming substrate, a transport material (124, 224, 324) configured to transport liquid aerosol-forming substrate to the fluid permeable heating element, the transport material having a thickness defined between a first surface (124a, 224a) of the transport material and an opposing second surface (124b, 224b) of the transport material, wherein the first surface is arranged in fluid communication with the fluid permeable heating element and the second surface is arranged to receive liquid aerosol-forming substrate, wherein the second surface of the transport material is provided with at least one hole (126, 226, 326) which extends into the transport material to a depth corresponding to at least a part of the thickness of the transport material to define a formed fluid channel for liquid aerosol-forming substrate, and characterized in that the first surface of the transport material is convex.