mhurhangee/patent-ind-claim-en huggingface dataset:
An optical probe comprising - a rear end for connection to an evaluation unit and a front end for optically inspecting an object , - a first optical beam path for a scanning imaging method and a second optical beam path for a spectroscopic method, - a first optical fiber in the first optical beam path configured to guide an illumination light for the scanning imaging method toward the front end of the probe and to guide object light returning from the object to the rear end of the probe , - a scanning apparatus configured to laterally deflect the first optical fiber or the illumination light emerging from the first optical fiber for scanning the object in the scanning imaging method, - a second optical fiber in the second optical beam path configured to guide an excitation light or a detected object light for the spectroscopic method, and - a beam splitter filter , wherein the first optical beam path of the scanning imaging method and the second optical beam path of the spectroscopic method are partially brought to overlap by means of the beam splitter filter in the probe , and wherein the beam splitter filter merges the first beam path and the second beam path in the direction from the rear end to the front end or separates them from each other in the opposite direction, wherein the probe has a diameter of not more than 5 mm. - a rear end for connection to an evaluation unit and a front end for optically inspecting an object , - a first optical beam path for a scanning imaging method and a second optical beam path for a spectroscopic method, - a first optical fiber in the first optical beam path configured to guide an illumination light for the scanning imaging method toward the front end of the probe and to guide object light returning from the object to the rear end of the probe , - a scanning apparatus configured to laterally deflect the first optical fiber or the illumination light emerging from the first optical fiber for scanning the object in the scanning imaging method, - a second optical fiber in the second optical beam path configured to guide an excitation light or a detected object light for the spectroscopic method, and - a beam splitter filter , wherein the first optical beam path of the scanning imaging method and the second optical beam path of the spectroscopic method are partially brought to overlap by means of the beam splitter filter in the probe , and wherein the beam splitter filter merges the first beam path and the second beam path in the direction from the rear end to the front end or separates them from each other in the opposite direction,
An apparatus for controlling a sub-system of a wind turbine, the apparatus comprising: a cooling system comprising first and second heat exchangers and a fluid circuit arranged to enable a coolant to flow between the first and second heat exchangers; and characterized by a processor configured to: monitor one or more operational parameters of the cooling system; determine an icing risk based on the one or more operational parameters; and generate a control signal for output to the wind turbine sub-system in dependence on the determined icing risk. a cooling system comprising first and second heat exchangers and a fluid circuit arranged to enable a coolant to flow between the first and second heat exchangers; and characterized by a processor configured to: monitor one or more operational parameters of the cooling system; determine an icing risk based on the one or more operational parameters; and generate a control signal for output to the wind turbine sub-system in dependence on the determined icing risk. monitor one or more operational parameters of the cooling system; determine an icing risk based on the one or more operational parameters; and generate a control signal for output to the wind turbine sub-system in dependence on the determined icing risk.
A cartridge (120; 200) for use with a vaporization device , the cartridge (120; 200) comprising: a reservoir (140; 206) configured to contain a liquid vaporizable material; a wick (103; 203; 303) configured to draw the liquid vaporizable material from the reservoir (140; 206) to a vaporization region, the wick (103; 203; 303) including a porous wicking material surrounding at least a part of a hollow core , the hollow core extending between opposing ends of the wick (103; 203; 303) such that the opposing ends allow the liquid vaporizable material to flow into the hollow core ; a heating element disposed within the vaporization region and adjacent the wick (103; 203; 303), the heating element configured to heat the liquid vaporizable material drawn from the reservoir (140; 206), and an internal support disposed within the hollow core , the internal support including an outer diameter that is configured to mate against an inner wall of the hollow core thereby assisting with retaining a shape of the hollow core , wherein the heating element is a coil that wraps around a circumference of the wick (103; 203; 303). a reservoir (140; 206) configured to contain a liquid vaporizable material; a wick (103; 203; 303) configured to draw the liquid vaporizable material from the reservoir (140; 206) to a vaporization region, the wick (103; 203; 303) including a porous wicking material surrounding at least a part of a hollow core , the hollow core extending between opposing ends of the wick (103; 203; 303) such that the opposing ends allow the liquid vaporizable material to flow into the hollow core ; a heating element disposed within the vaporization region and adjacent the wick (103; 203; 303), the heating element configured to heat the liquid vaporizable material drawn from the reservoir (140; 206), and an internal support disposed within the hollow core , the internal support including an outer diameter that is configured to mate against an inner wall of the hollow core thereby assisting with retaining a shape of the hollow core , wherein the heating element is a coil that wraps around a circumference of the wick (103; 203; 303).
Tyre suitable for running flat, said tyre comprising a crown , two sidewalls and two beads , a carcass reinforcement anchored in each bead and a sidewall insert placed in each of the two sidewalls axially internally relative to said carcass reinforcement , characterized in that said tyre is equipped with an electronic device comprising at least one radiofrequency transponder and in that said electronic device is placed axially internally relative to the outer rubber layer of said sidewall and externally relative to the carcass reinforcement and radially at above 55% of the section height (SH) of said tyre .
Method for detecting a turn-off current through an electronic switch for a DC voltage grid, wherein the electronic switch comprises two turn-off semiconductor switches , wherein the two turn-off semiconductor switches are arranged in such a way that they can each turn off a current having a different polarity through the electronic switch , wherein the two turn-off semiconductor switches are arranged either in antiseries, in the case of reverse conducting semiconductor switches, or in antiparallel, in the case of reverse blocking semiconductor switches, in the electronic switch , wherein a first of the turn-off semiconductor switches comprises at least four terminals (G, C, E, E'), wherein a second of the turn-off semiconductor switches comprises at least three terminals (G, C, E), wherein at the first of the two turn-off semiconductor switches a first voltage (U overcurrent,1 ) is measured between an emitter terminal (E) and an auxiliary emitter terminal (E') and at a second of the two turn-off semiconductor switches a second voltage (U overcurrent,2 ) is measured between a collector terminal (C) and an emitter terminal (E) or between a drain terminal and a source terminal, wherein the measured voltage (U overcurrent,1 , U overcurrent,2 ) or the time integral of the measured voltage (U overcurrent,1 , U overcurrent,2 ) is compared in each case with a reference value (X ref ) and the relevant turn-off semiconductor switch is turned off in the event of the reference value (X ref ) being exceeded.
An injection device suitable for an intraepidermal and/or intradermal and/or subcutaneous administration comprising a sterile and injectable composition, said composition being prepared by a method comprising at least the steps of: a) providing at least one gel of hyaluronic acid or a salt thereof, said hyaluronic acid being selected from a crosslinked hyaluronic acid form, a non-crosslinked hyaluronic acid form or a mixture thereof; b) adding to said gel of hyaluronic acid at least mepivacaine hydrochloride as anesthetic agent; and c) sterilizing the mixture obtained in step b). a) providing at least one gel of hyaluronic acid or a salt thereof, said hyaluronic acid being selected from a crosslinked hyaluronic acid form, a non-crosslinked hyaluronic acid form or a mixture thereof; b) adding to said gel of hyaluronic acid at least mepivacaine hydrochloride as anesthetic agent; and c) sterilizing the mixture obtained in step b).
A system , comprising: a barrel having a material inlet port disposed proximate to a first end and configured to receive an expandable material through the material inlet port , wherein the expandable material is a heat activated expandable material; a die disposed proximate to a second end of the barrel , the die including a first opening to receive the expandable material from the barrel and a second opening; a screw substantially disposed within the barrel and configured move the expandable material through the barrel from the inlet port to the die , characterized in further comprising: a profiler disposed adjacent to the die at the second opening, wherein the profiler includes a shaped cut-out configured to extrude the expandable material into a formed extruded expandable barrier, wherein the profiler is at least one of a removable plate and a removable screen; a controller configured to implement a heating profile; and a plurality individual temperature controlled zones, wherein the controller is configured to regulate each temperature controlled zone according to the heating profile. a barrel having a material inlet port disposed proximate to a first end and configured to receive an expandable material through the material inlet port , wherein the expandable material is a heat activated expandable material; a die disposed proximate to a second end of the barrel , the die including a first opening to receive the expandable material from the barrel and a second opening; a screw substantially disposed within the barrel and configured move the expandable material through the barrel from the inlet port to the die , characterized in further comprising: a profiler disposed adjacent to the die at the second opening, wherein the profiler includes a shaped cut-out configured to extrude the expandable material into a formed extruded expandable barrier, wherein the profiler is at least one of a removable plate and a removable screen; a controller configured to implement a heating profile; and a plurality individual temperature controlled zones, wherein the controller is configured to regulate each temperature controlled zone according to the heating profile. a profiler disposed adjacent to the die at the second opening, wherein the profiler includes a shaped cut-out configured to extrude the expandable material into a formed extruded expandable barrier, wherein the profiler is at least one of a removable plate and a removable screen; a controller configured to implement a heating profile; and a plurality individual temperature controlled zones, wherein the controller is configured to regulate each temperature controlled zone according to the heating profile.
A method for retransmission of uplink transmissions, by a wireless device with configured uplink grants, the method comprising: transmitting a first transmission to a network node with a redundancy version using the configured uplink grants; and receiving a message from the network node, the method further comprising determining, by the wireless device from the message, whether an adaptive retransmission is to be made using the configured uplink grants, whether a non-adaptive retransmission is to be made using the configured uplink grants, or whether the configured uplink grants are not to be used for retransmission, wherein, if it is determined from the message that an adaptive retransmission is to be made, the method further comprises: setting the redundancy version to correspond to a specified redundancy version value specified in the message; and retransmitting the first transmission using the specified redundancy version value, wherein, if it is determined from the message that a non-adaptive retransmission is to be made, the method further comprises: setting the redundancy version value to zero; and retransmitting the first transmission using a zero redundancy version value, and wherein, if the wireless device detects a discontinuous transmission from the network node in response to the first transmission, the method further comprises not using the configured uplink grants for retransmission, and sending a scheduling request to the network node. transmitting a first transmission to a network node with a redundancy version using the configured uplink grants; and receiving a message from the network node, setting the redundancy version to correspond to a specified redundancy version value specified in the message; and retransmitting the first transmission using the specified redundancy version value, setting the redundancy version value to zero; and retransmitting the first transmission using a zero redundancy version value, and
A microfluidic biochip device comprising: a housing including at least one microchannel defining at least one cell adhesion region , the at least one cell adhesion region being provided with at least one capturing agent that adheres a cell of interest being a red blood cell to a surface of the at least one microchannel when a fluid sample comprising blood containing cells is passed through the at least one microchannel ; and an imaging system for measuring the morphology and/or quantity of cells of interest being red blood cells adhered by the at least one capturing agent to the surface of the at least one microchannel when the fluid sample comprising blood is passed therethrough, characterized in that the at least one microchannel has a width that continuously changes in a direction of fluid flow comprising blood therethrough and the capturing agent comprises a bioaffinity ligand including at least one of fibronectin, laminin, thrombospondin, selectin, von Willebrand Factor (vWF) or a C146 antibody.
An agricultural planting system for controlling the depth of an opener device in an agricultural planter, the agricultural planting system comprising: an agricultural planter; an opener device mounted on the agricultural planter for engaging the ground of a field; a gauge wheel mounted on the agricultural planter for rotating on the ground of the field; at least one soil-moisture sensor configured to measure a moisture content of the soil in the ground; and a controller in electrical communication with the agricultural planter and the at least one soil-moisture sensor, characterized in that the controller is configured to select a relative elevation of the opener device and the gauge wheel based at least in part on a map of the field representing the moisture content measured by the at least one soil-moisture sensor as a soil moisture map and on a topographical map, and produce, based on the map of the field including the soil moisture map and the topographical map, a signal for adjusting the depth of engagement into the ground of the opener device. an agricultural planter; an opener device mounted on the agricultural planter for engaging the ground of a field; a gauge wheel mounted on the agricultural planter for rotating on the ground of the field; at least one soil-moisture sensor configured to measure a moisture content of the soil in the ground; and a controller in electrical communication with the agricultural planter and the at least one soil-moisture sensor, characterized in that the controller is configured to select a relative elevation of the opener device and the gauge wheel based at least in part on a map of the field representing the moisture content measured by the at least one soil-moisture sensor as a soil moisture map and on a topographical map, and produce, based on the map of the field including the soil moisture map and the topographical map, a signal for adjusting the depth of engagement into the ground of the opener device. select a relative elevation of the opener device and the gauge wheel based at least in part on a map of the field representing the moisture content measured by the at least one soil-moisture sensor as a soil moisture map and on a topographical map, and produce, based on the map of the field including the soil moisture map and the topographical map, a signal for adjusting the depth of engagement into the ground of the opener device.
A method of operating an optical network unit (ONU) in an optical communication network including a plurality of optical line terminals (OLTs) , comprising: performing a physical layer scan over a downstream tuning range to find a peak of a received optical power from at least one of the plurality of OLTs, wherein each of the plurality of OLTs transmits on a unique downstream wavelength; setting up operation of the ONU on a channel based on the physical layer scan; monitoring a controllable tuning parameter during the operation to a configured threshold; and reporting , when the controllable tuning parameter exceeds the configured threshold, a value of the controllable tuning parameter to the at least one optical line termination (OLT). performing a physical layer scan over a downstream tuning range to find a peak of a received optical power from at least one of the plurality of OLTs, wherein each of the plurality of OLTs transmits on a unique downstream wavelength; setting up operation of the ONU on a channel based on the physical layer scan; monitoring a controllable tuning parameter during the operation to a configured threshold; and reporting , when the controllable tuning parameter exceeds the configured threshold, a value of the controllable tuning parameter to the at least one optical line termination (OLT).
A nasal composition, said nasal composition comprising or consisting of a first composition part in the form of a liquid decongestant with 0.05% w/w active agent oxymetazoline, and a second composition part including or consisting of cellulose powder and/or Hydroxypropylmethylcellulose (HPMC) powder for use in nasal application to a patient, said first composition part applied to the patient immediately followed by the second composition part, and wherein the dosage regime of the composition is one puff or squirt of the first composition part immediately followed by one puff or squirt of the second composition part once a day for 7 days, with the first composition part and the second composition part no longer given between days 8-15.
Firmware over-the-air (FOTA) method for updating building technology, in particular lighting technology installations, comprising multiple devices (5, 5", 5") which are connected to a server as a meshed network , wherein the method comprises the following steps: - storing a firmware update image sent by the server in an external memory of each device; and - triggering the copying of the firmware update from the external memory to an internal memory of a microcontroller of each of the devices (5, 5', 5") by means of a trigger command issued by the server , wherein, within a predefined time period after the trigger command is issued, the server uses feedback from the devices (5, 5', 5") to check whether each device (5, 5', 5") has received the firmware update image and the trigger command from the server , and wherein the copying does not take place until after the predefined time period has elapsed, and wherein, if the check is negative with respect to at least one device, the firmware over-the-air update is aborted by the server within the predefined time period. - storing a firmware update image sent by the server in an external memory of each device; and - triggering the copying of the firmware update from the external memory to an internal memory of a microcontroller of each of the devices (5, 5', 5") by means of a trigger command issued by the server , wherein, within a predefined time period after the trigger command is issued, the server uses feedback from the devices (5, 5', 5") to check whether each device (5, 5', 5") has received the firmware update image and the trigger command from the server , and wherein the copying does not take place until after the predefined time period has elapsed, and wherein, if the check is negative with respect to at least one device, the firmware over-the-air update is aborted by the server within the predefined time period.
A grass management system, comprising: a landform information obtaining device configured to obtain a landform of an agricultural field; a discharge information obtaining part configured to obtain a scheduled discharging position at which a baled material is discharged to the agricultural field, the baled material being baled by a roll baler configured to collect and bale grass of the agricultural field, characterized in that the grass management system further comprises a route creating part configured to create a traveling route of a rake based on the landform information and the scheduled discharging position before an operation by the roll baler , the rake being configured to rake the grass. a landform information obtaining device configured to obtain a landform of an agricultural field; a discharge information obtaining part configured to obtain a scheduled discharging position at which a baled material is discharged to the agricultural field, the baled material being baled by a roll baler configured to collect and bale grass of the agricultural field, characterized in that the grass management system further comprises a route creating part configured to create a traveling route of a rake based on the landform information and the scheduled discharging position before an operation by the roll baler , the rake being configured to rake the grass.
An oncolytic adenovirus, wherein said oncolytic adenovirus is able to replicate in a tumor cell, wherein said adenovirus is selected from the group consisting of: (i) an adenovirus comprising a V721A mutation in the Hex713 epitope (YLNHTFKKV) (SEQ ID NO: 11), an A900S mutation in the Hex892 epitope (LLYANSAHA) (SEQ ID NO: 15) and a V925K mutation in the Hex917 epitope (YVLFEVFDV) (SEQ ID NO: 19); and (ii) an adenovirus comprising a L520P mutation in the Hex512 epitope (GLVDCYINL) (SEQ ID NO: 23), a V721A mutation in the Hex713 epitope (YLNHTFKKV) (SEQ ID NO: 11), an A900S mutation in the Hex892 epitope (LLYANSAHA) (SEQ ID NO: 15), and a V925K mutation in the Hex917 epitope (YVLFEVFDV) (SEQ ID NO: 19). (i) an adenovirus comprising a V721A mutation in the Hex713 epitope (YLNHTFKKV) (SEQ ID NO: 11), an A900S mutation in the Hex892 epitope (LLYANSAHA) (SEQ ID NO: 15) and a V925K mutation in the Hex917 epitope (YVLFEVFDV) (SEQ ID NO: 19); and (ii) an adenovirus comprising a L520P mutation in the Hex512 epitope (GLVDCYINL) (SEQ ID NO: 23), a V721A mutation in the Hex713 epitope (YLNHTFKKV) (SEQ ID NO: 11), an A900S mutation in the Hex892 epitope (LLYANSAHA) (SEQ ID NO: 15), and a V925K mutation in the Hex917 epitope (YVLFEVFDV) (SEQ ID NO: 19).