mhurhangee/ep-ind-claims huggingface dataset:
Drilling turbine comprising a housing, in which a drive shaft is rotatably mounted, and comprising a turbine impeller which is designed to set the drive shaft in rotation, the drive shaft being connectable to a drilling tool (4, 5), and the housing having at least one drive line (9, 12) with at least one drive mouth, through which a drive fluid can be directed onto the turbine impeller, characterized in that the turbine impeller is directly connected to the drive shaft so that, during operation, the turbine impeller and the drive shaft and the drilling tool (4, 5) rotate at the same rotational speed, and the housing has a diameter of about 2.5 cm to about 15 cm and/or a length of about 3 cm to about 15 cm, the turbine impeller being arranged on the housing in open fashion, which means that the turbine is not enclosed by a housing wall in a radial direction. a housing, in which a drive shaft is rotatably mounted, and comprising a turbine impeller which is designed to set the drive shaft in rotation, the drive shaft being connectable to a drilling tool (4, 5), and the housing having at least one drive line (9, 12) with at least one drive mouth, through which a drive fluid can be directed onto the turbine impeller, characterized in that the turbine impeller is directly connected to the drive shaft so that, during operation, the turbine impeller and the drive shaft and the drilling tool (4, 5) rotate at the same rotational speed, and the housing has a diameter of about 2.5 cm to about 15 cm and/or a length of about 3 cm to about 15 cm, the turbine impeller being arranged on the housing in open fashion, which means that the turbine is not enclosed by a housing wall in a radial direction.
Method for the machine-based determination of the functional state of support rollers of a belt conveyor system during the operation of the belt conveyor system, wherein at least one unmanned vehicle with at least one imaging sensor system is provided, by means of which at least sections of the belt conveyor system can be captured in the form of image data, wherein image data of at least one subregion of the belt conveyor system is captured as thermal image data, in the captured image data of the belt conveyor system at least one identification image region position, in which at least one subregion of a support roller is imaged, is automatically determined, for each determined identification region position from the image data, an analysis image region position is automatically defined in the thermal image data, and in each defined analysis image region position, thermal image data are automatically analysed in order to automatically determine the functional state of support rollers, characterised in that the image data that can be captured by the imaging sensor system also comprise photographic image data in addition to the thermal image data, image data of at least one subregion of the belt conveyor system are also captured as photographic image data, the captured image data of the belt conveyor system, in which at least one identification image region position is determined automatically, are photographic image data in which photographic image data regions are automatically detected as image data regions, and the position of each detected photographic image data region is automatically provided as the identification image region position. in the captured image data of the belt conveyor system at least one identification image region position, in which at least one subregion of a support roller is imaged, is automatically determined, for each determined identification region position from the image data, an analysis image region position is automatically defined in the thermal image data, and in each defined analysis image region position, thermal image data are automatically analysed in order to automatically determine the functional state of support rollers, characterised in that the image data that can be captured by the imaging sensor system also comprise photographic image data in addition to the thermal image data, image data of at least one subregion of the belt conveyor system are also captured as photographic image data, the captured image data of the belt conveyor system, in which at least one identification image region position is determined automatically, are photographic image data in which photographic image data regions are automatically detected as image data regions, and the position of each detected photographic image data region is automatically provided as the identification image region position.
Method for freeze-drying injectable compositions, comprising: a. containing a quantity of a dispersion of an injectable composition in an aqueous dispersion medium in at least one vial, b. rotating the vial for a period of time to form a dispersion layer at an inner surface of a circumferential wall of the vial, c. cooling the rotating vial to form ice crystals at the inner surface of the circumferential wall of the vial, d. reducing the pressure inside the vial and supplying energy in the form of thermal heat, to the vial, and e. drying the cooled composition to sublime at least a portion of the ice crystals formed in the dispersion by substantially homogeneously heating the circumferential wall of the vial and/or the dispersion, characterized in that during step e. the dispersion layer formed on the inner surface of the circumferential wall is monitored using at least one optical sensor and wherein the drying process is controlled using a control unit connected to said optical sensor. a. containing a quantity of a dispersion of an injectable composition in an aqueous dispersion medium in at least one vial, b. rotating the vial for a period of time to form a dispersion layer at an inner surface of a circumferential wall of the vial, c. cooling the rotating vial to form ice crystals at the inner surface of the circumferential wall of the vial, d. reducing the pressure inside the vial and supplying energy in the form of thermal heat, to the vial, and e. drying the cooled composition to sublime at least a portion of the ice crystals formed in the dispersion by substantially homogeneously heating the circumferential wall of the vial and/or the dispersion,
A computer-implemented method for characterizing a subsurface region, the method comprising: obtaining subsurface information, the subsurface information defining recorded unsegmented continuous data that characterizes one or more properties of the subsurface region, portions of the unsegmented continuous data corresponding to portions of the subsurface region; obtaining a set of moving windows for the unsegmented continuous data, the set of moving windows including multiple moving windows of different sizes; scanning the unsegmented continuous data with the set of moving windows; determining probabilities that the portions of the subsurface region include a subsurface feature based on analysis of the portions of the unsegmented continuous data within the set of moving windows, the method characterized in that different sets of the probabilities over the unsegmented continuous data are determined based on the set of moving windows including the multiple moving windows of different sizes; and the method further characterized in determining aggregated probabilities that the portions of the subsurface region include the subsurface feature based on aggregation of the different sets of the probabilities over the unsegmented continuous data, wherein the aggregated probabilities that the portions of the subsurface region include the subsurface feature are presented within a graphical representation. obtaining subsurface information, the subsurface information defining recorded unsegmented continuous data that characterizes one or more properties of the subsurface region, portions of the unsegmented continuous data corresponding to portions of the subsurface region; obtaining a set of moving windows for the unsegmented continuous data, the set of moving windows including multiple moving windows of different sizes; scanning the unsegmented continuous data with the set of moving windows; determining probabilities that the portions of the subsurface region include a subsurface feature based on analysis of the portions of the unsegmented continuous data within the set of moving windows, the method characterized in that different sets of the probabilities over the unsegmented continuous data are determined based on the set of moving windows including the multiple moving windows of different sizes; and the method further characterized in determining aggregated probabilities that the portions of the subsurface region include the subsurface feature based on aggregation of the different sets of the probabilities over the unsegmented continuous data, wherein the aggregated probabilities that the portions of the subsurface region include the subsurface feature are presented within a graphical representation.
Multi-well plate for cell cultures comprising - a plurality of wells arranged in rows; - each of said wells defining a preferred extension axis, a chamber suitable to house said cell cultures and an introduction section of said cell cultures in said chamber; - culture modules suitable to be fastened together to make said multi-well plate; each of said culture modules comprising a lower body defining a longitudinal axis substantially perpendicular to said preferred extension axes and comprising at least a bottom portion each of which comprising one of said chambers of said wells arranged along one of said rows; - characterised in that each of said culture modules comprises - an upper body suitable to rest on said lower body and comprising a base plate defining an extension axis practically parallel to said longitudinal axis and comprising a apex portions and constraint means suitable to constrain said upper body to a lower body of an adjacent culture module; said apex portions being complementary to said bottom portions and comprising said introduction sections of said wells in said row; and - at least one lid suitable to be inserted, through at least one of said of introduction sections, into at least one of said wells detachably engaging to said bottom portion and constraining said upper body to said lower body so as to closing said chamber. - a plurality of wells arranged in rows; - each of said wells defining a preferred extension axis, a chamber suitable to house said cell cultures and an introduction section of said cell cultures in said chamber; - culture modules suitable to be fastened together to make said multi-well plate; each of said culture modules comprising a lower body defining a longitudinal axis substantially perpendicular to said preferred extension axes and comprising at least a bottom portion each of which comprising one of said chambers of said wells arranged along one of said rows; - characterised in that each of said culture modules comprises - characterised in that each of said culture modules comprises - an upper body suitable to rest on said lower body and comprising a base plate defining an extension axis practically parallel to said longitudinal axis and comprising a apex portions and constraint means suitable to constrain said upper body to a lower body of an adjacent culture module; said apex portions being complementary to said bottom portions and comprising said introduction sections of said wells in said row; and - at least one lid suitable to be inserted, through at least one of said of introduction sections, into at least one of said wells detachably engaging to said bottom portion and constraining said upper body to said lower body so as to closing said chamber.
A cutting wheel composition comprising 50 to 85wt% of abrasive particles, 10 to 25wt% of binder resin, and balance filler, wherein the binder resin comprises a phenolic resin as a first binder resin; and at least one of a (bis)maleimide resin and a cyanate ester resin as a second binder resin.
A duplex document scanning apparatus comprising: a scan unit including a reader, the scan unit sequentially scans images of both sides of a sheet by moving the sheet across the reader through a scan unit document feed path; and a reverse output unit to receive the sheet from the scan unit after the images of both sides of the sheet have been scanned and to output the sheet after turning over the sheet; characterised in that: the reverse output unit is configured to turn over a sheet via a path separate from the scan unit document feed path. a scan unit including a reader, the scan unit sequentially scans images of both sides of a sheet by moving the sheet across the reader through a scan unit document feed path; and a reverse output unit to receive the sheet from the scan unit after the images of both sides of the sheet have been scanned and to output the sheet after turning over the sheet; the reverse output unit is configured to turn over a sheet via a path separate from the scan unit document feed path.
A curable resin composition comprising: a compound having an allyl group and an epoxy group, wherein the compound is a compound represented by formula below: wherein m represents 0 or a positive number, Y represents -S- or an unsubstituted or fluorine-substituted divalent hydrocarbon group, which divalent hydrocarbon group is an alkylene group, a cycloalkylene group, a cycloalkylene alkylene group, an arylene group, or an arylene alkylene group, wherein the alkylene group is a linear alkylene group; and R 1, R 2, R 3, and R 4 each independently represent a hydrogen atom, a C 1-4 alkyl group, an allyl group, or a glycidyloxy group; a thiol-based curing agent; a photoradical initiator; and at least one type of compound selected from the group consisting of thermally latent curing agents and curing catalysts. a compound having an allyl group and an epoxy group, wherein the compound is a compound represented by formula below: wherein m represents 0 or a positive number, Y represents -S- or an unsubstituted or fluorine-substituted divalent hydrocarbon group, which divalent hydrocarbon group is an alkylene group, a cycloalkylene group, a cycloalkylene alkylene group, an arylene group, or an arylene alkylene group, wherein the alkylene group is a linear alkylene group; and R 1, R 2, R 3, and R 4 each independently represent a hydrogen atom, a C 1-4 alkyl group, an allyl group, or a glycidyloxy group; a thiol-based curing agent; a photoradical initiator; and at least one type of compound selected from the group consisting of thermally latent curing agents and curing catalysts.
Computer-aided method for analyzing and/or optimizing a dynamic driving behavior of a vehicle under test, comprising the following steps: determining data of a trajectory of the vehicle under test, in particular a center of gravity of the vehicle under test, as well as trajectory velocities on the trajectory on the basis of data of the vehicle recorded during a test operation, recording a value and/or a value progression of at least one physical variable to be determined, which characterizes a dynamic driving behavior of a vehicle, simulating an operation of a reference vehicle by means of a vehicle model of the reference vehicle in such a way that the reference vehicle, in particular a center of gravity of the reference vehicle, during simulation at least substantially describes the trajectory of the vehicle under test with the determined path velocities, wherein for at least one value of the at least one physical variable to be determined obtained in the test operation of the vehicle under test a corresponding value is calculated by simulation by means of the vehicle model, comparing the vehicle under test with the reference vehicle with respect to the at least one physical variable to be determined, and analyzing the dynamic driving behavior of the vehicle under test on the basis of said comparison, and evaluating the dynamic driving behavior of the vehicle under test with respect to the reference vehicle. determining data of a trajectory of the vehicle under test, in particular a center of gravity of the vehicle under test, as well as trajectory velocities on the trajectory on the basis of data of the vehicle recorded during a test operation, recording a value and/or a value progression of at least one physical variable to be determined, which characterizes a dynamic driving behavior of a vehicle, simulating an operation of a reference vehicle by means of a vehicle model of the reference vehicle in such a way that the reference vehicle, in particular a center of gravity of the reference vehicle, during simulation at least substantially describes the trajectory of the vehicle under test with the determined path velocities, wherein for at least one value of the at least one physical variable to be determined obtained in the test operation of the vehicle under test a corresponding value is calculated by simulation by means of the vehicle model, comparing the vehicle under test with the reference vehicle with respect to the at least one physical variable to be determined, and analyzing the dynamic driving behavior of the vehicle under test on the basis of said comparison, and evaluating the dynamic driving behavior of the vehicle under test with respect to the reference vehicle.
A control method for a cooling device that comprises a freshfood compartment in which food and beverages are stored, a freezing compartment where the food is stored frozen, one or more doors that enable access to the compartments (2 and 3), a compressor that enables the cooling cycle to be performed, an evaporator that provides cooling of the inner volume of the cooling device by absorbing thermal energy, a defrost unit that provides cleaning of frost accumulated on the evaporator, a thermometer that enables the measurement of the temperature inside the freshfood compartment, one or more door switches that turn on when the door is open and that turn off when the door is closed, a memory that stores information such as defrost algorithm, next defrost time, and further comprises a control card that determines the operation period of defrost unit based on constant or variable defrost algorithms, and that delays the operation period of defrost unit until the temperature of the freshfood compartment exceeds a predetermined limit temperature value in a predetermined latency time, if the door is not opened after the last defrost process, said method comprising the steps of determining a succeeding defrost time (zd) after the defrost process; Controlling whether the door is opened; If the door is opened, delaying the process until the succeeding defrost time (zd); Performing the defrost process by operating the defrost unit; Returning to the step where the succeeding defrost time is computed; If the door is not opened, comparing the temperature of freshfood compartment determined by thermometer with the limit temperature value (Ts) of freshfood compartment; If the temperature of the freshfood compartment is lower than the limit temperature value of the freshfood compartment (Ts), returning to the step where whether the door is closed or not is controlled; If the temperature of freshfood compartment is higher than the limit temperature value of the freshfood compartment (Ts), comparing the time span in which the temperature of the freshfood compartment stays above the limit temperature value (Ts) of freshfood compartment with a limit warming period (zs) of freshfood compartment; If the time span in which the temperature of the freshfood compartment stays above the limit temperature value (Ts) of the freshfood compartment is lower than the limit warning period (zs) of freshfood compartment, returning to the step where whether the door is closed or not is controlled; If the time span in which the temperature of freshfood compartment stays above the limit temperature value (Ts) of freshfood compartment is higher than the limit warming period (zs) of freshfood compartment, performing the defrost process by operating the defrost unit; Returning to the step where the succeeding defrost time is computed.
An impact diverting mechanism mountable to a helmet having a rigid outer shell, comprising: a bottom layer mountable to an outer surface of the rigid outer shell; and a top layer, disposed adjacent to and mechanically connected to the bottom layer around the perimeter, the top layer having an impact surface disposed distal to the bottom layer, wherein the top layer and the bottom layer are able to move relative to each other, and wherein the impact surface is either planar or non-planar; wherein the top layer and the bottom layer are configured such that the top layer is shiftable relative to the bottom layer and the outer surface of the rigid outer shell; wherein the bottom layer is mountable to the outer surface of the rigid outer shell using an adhesive; and wherein the shift of the top layer relative to the bottom layer diverts and dissipates kinetic energy resulting from the parallel component of the vector of an oblique impact force acting at an impact point on the impact surface of the top layer, thereby reducing rotational acceleration of the helmet. a bottom layer mountable to an outer surface of the rigid outer shell; and a top layer, disposed adjacent to and mechanically connected to the bottom layer around the perimeter, the top layer having an impact surface disposed distal to the bottom layer, wherein the top layer and the bottom layer are able to move relative to each other, and wherein the impact surface is either planar or non-planar; wherein the top layer and the bottom layer are configured such that the top layer is shiftable relative to the bottom layer and the outer surface of the rigid outer shell; wherein the bottom layer is mountable to the outer surface of the rigid outer shell using an adhesive; and wherein the shift of the top layer relative to the bottom layer diverts and dissipates kinetic energy resulting from the parallel component of the vector of an oblique impact force acting at an impact point on the impact surface of the top layer, thereby reducing rotational acceleration of the helmet.